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Global EIC System Requirements

Global requirements associated with the Electron Ion Collider.

Name
WBS
Description
Updated
Status
TBD
GBL

GBL-BACKGRDS

GBL-BEAMPOL

GBL-BUNCHPARAMS

GBL-CENMASSENG

GBL-DETACCEPT

G-GBL-DETACCEPT.01
6.0
the scattered electron alone must be precisely measured, including a range of angles within a few milliradians of the beam; semi-inclusive measurements, which require detection of at least one hadron in coincidence with the scattered electron; and exclusive processes, which require the
05/16/2025
In Process
FALSE

G-GBL-DETACCEPT.02
6.0
the detector must be “hermetic”, with an acceptance that includes all angles, up to those of particles scattered within a few milliradians of the colliding beam directions.
05/16/2025
In Process
FALSE

G-GBL-DETACCEPT.03
6.0
The main detector, comprising tracking, calorimetry, and particle identification for scattered particles with pseudorapidity in the range η = -4 to +4 must fit within a space -4.5 to +5 meters from the collision point.
05/16/2025
In Process
FALSE

G-GBL-DETACCEPT.04
6.0
For scattered particles whose energy and momentum are very close to those of the circulating beams, far forward and backward detectors must be integrated with the accelerator components of the IR.
05/16/2025
In Process
FALSE

G-GBL-DETACCEPT.05
6.0
The required experimental equipment includes:Very forward detectors to complete the hermetic coverage, such as Roman pots to detect scattered protons that remain inside the beam pipe, and large acceptance zero-degree calorimetry to effectively detect neutrons from the break-up of nuclei
05/16/2025
In Process
FALSE

G-GBL-DETACCEPT.06
6.0
Polarized beams require the implementation of electron, proton, and light-ion polarimetry.
05/16/2025
In Process
FALSE

G-GBL-DETACCEPT.07
6.0
The EIC detector will have to cope with collision rates up to ~500 kHz at full luminosity.
05/16/2025
In Process
FALSE

GBL-EFFICIENCY_REDUNDANCY

GBL-ENVIRON

G-GBL-ENVIRON.01
6.0
Ecologically and environmentally sensitive areas such as the Peconic River that crosses the EIC facility must not be affected by EIC construction activities.
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.02
6.0
Precautions shall be taken at locations with expected high beam loss, that activation of oil, ground water, and cooling water is kept within level defined by the document C-AD OPM 9.1.12.
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.03
6.0
The inefficient use of electrical power shall be avoided by appropriate energy conscientious design.
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.04
6.0
Precautions shall be taken at locations with expected high beam loss, that activation of soil, ground water, and cooling water is kept ALARA, and that controls are implemented to minimize environmental impacts and exposure to personnel.
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.05
6.0
In addition, DOE buildings are subject to the requirements for efficiency and sustainability in DOE O 436.1, Departmental Sustainability.
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.06
6.0
In order to minimize the impact of the EIC on the environment, the facility must comply to the National Environmental Policy Act (NEPA)Implementing Procedures, 10 CFR 1021
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.07
6.0
In order to minimize the impact of the EIC on the Compliance with Floodplain/Wetlands Environmental Review Requirements, 10 CFR 1022
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.08
6.0
In order to minimize the impact of the EIC on the Endangered Species Act (Title 16 - Conservation: Chapter 35-Endangered Species, 16 USC 1531
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.09
6.0
In order to minimize the impact of the EIC on the Historic Sites Act of 1935, 16 USC 461-467
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.10
6.0
In order to minimize the impact of the EIC on the Archaeological and Historic Preservation Act, 16 USC 469
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.11
6.0
In order to minimize the impact of the EIC on the National Historic Preservation Act, 16 USC 470
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.12
6.0
In order to minimize the impact of the EIC on the Archaeological Resources Protection Act of 1979, 16 USC 470aa-470ll
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.13
6.0
In order to minimize the impact of the EIC on the Migratory Bird Treaty Act, 16 USC 703-712
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.14
6.0
In order to minimize the impact of the EIC on the Protection of Historic Resources, 36 CFR 800
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.15
6.0
In order to minimize the impact of the EIC on the Protection of Environment /Protection of Stratospheric Ozone, 40 CFR 82
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.16
6.0
In order to minimize the impact of the EIC on the Resource Conservation and Recovery Act (RCRA), 40 CFR 239 – 282
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.17
6.0
In order to minimize the impact of the EIC on the National Environmental Policy Act of 1969, et seq., as amended, 42 USC 4321-4347
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.18
6.0
In order to minimize the impact of the EIC on the Trees and Plants/Protected Native Plants, 6 NYCRR 193.3
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.19
6.0
In order to minimize the impact of the EIC on the Environmental Remediation Programs, 6 NYCRR 375
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.20
6.0
In order to minimize the impact of the EIC on the Article 15, Title 5 - Protection of Waters, 6 NYCRR 608
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.21
6.0
In order to minimize the impact of the EIC on the Article 24 - Freshwater Wetlands, 6 NYCRR 662 & 663
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.22
6.0
In order to minimize the impact of the EIC on the Article 15, Title 27 - Wild, Scenic, Recreational River Systems Act, 6 NYCRR 666
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.23
6.0
In order to minimize the impact of the EIC on the New York State Environmental Quality Review Act, 8 NYCRR Part 101
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.24
6.0
In order to minimize the impact of the EIC on the Notification Requirements under CERCLA and Title III of the Superfund Amendments and Reauthorization Act of 1986, 40 CFR 302.6
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.25
6.0
In order to minimize the impact of the EIC on the Transportation/Hazardous Materials Regulations/ Hazardous Materials Table, Special Provisions, Hazardous Materials Communications, Emergency Response Information, and Training Requirements, 49 CFR 172
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.26
6.0
In order to minimize the impact of the EIC on the Solid Wastes, 6 NYCRR 360-364.9
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.27
6.0
In order to minimize the impact of the EIC on the Hazardous Waste Management System: General, 6 NYCRR 370
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.28
6.0
In order to minimize the impact of the EIC on the Identification and Listing of Hazardous Wastes, 6 NYCRR 371
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.29
6.0
In order to minimize the impact of the EIC on the Standards for the Management of Special Hazardous Wastes and Specific Types of Hazardous Waste Management Facilities, 6 NYCRR 374
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.30
6.0
In order to minimize the impact of the EIC on the Standards for the Management of Used Oil, New York State Department of Environmental Conservation, 6 NYCRR 374-2
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.31
6.0
New York State Department of Health, State Sanitary Code, Drinking Water Supplies , 10 NYCRR 5
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.32
6.0
The Bald and Golden Eagle Protection Act., 16 USC 668 a-d
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.33
6.0
Discharge of Oil, 40 CFR 110.6
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.34
6.0
Protection of Environment/Oil Pollution Prevention, 40 CFR 112
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.35
6.0
Code of Federal Regulations, National Pollutant Discharge Elimination System, 40 CFR 122-131, 133
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.36
6.0
National Primary and Secondary Drinking Water Standards, 40 CFR 141-143
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.37
6.0
Underground Injection Control, 40 CFR 144 - 148
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.38
6.0
November 1978, "Regulations for Implementing the Procedural Provisions of the National Environmental Policy Act," Council on Environmental Quality, U.S. Code of Federal Regulations, 40 CFR 1500-1508
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.39
6.0
Resource Conservation and Recovery Act/Standards Applicable to Generators of Hazardous Waste, 40 CFR 262 & 264-265
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.40
6.0
Standards for the Management of Used Oil, 40 CFR 279
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.41
6.0
Protection of the Environment/National Oil and Hazardous Substances Pollution Contingency Plan, 40 CFR 300
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.42
6.0
Standards of Performance for New Stationary Sources (NSPS), 40 CFR 60 - Subpart A
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.43
6.0
Standards of Performance for Stationary Compression Ignition Internal Combustion Engine, 40 CFR 60 Subpart IIII (as amended June 28, 2011)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.44
6.0
National Emissions Standards for Hazardous Air Pollutants (NESHAPs)- General Provisions, 40 CFR 61 - Subpart A
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.45
6.0
National Emission Standards for Hazardous Air Pollutants (NESHAPs) - National Emission Standards for Emissions of Radionuclides Other Than Radon from Department of Energy Facilities, 40 CFR 61 - Subpart H
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.46
6.0
Mandatory Greenhouse Gas Reporting, 40 CFR 98
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.47
6.0
USC 1996. July 1983, "CEQ Regulations for Implementing the Procedural Provisions of the National Environmental Policy Act," Council on Environmental Quality, Federal Register, 48 FR 34263
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.48
6.0
Endanger and Threatened Wildlife and Plants; Listing the Northern Long-Eared Bat as an Endangered Species - Proposed Rule, 50 CFR 17 Dept. of Interior, Fish and Wild Life Service [Fed. Reg. Vol.78 No.191, Oct 2, 2013]
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.49
6.0
New York State Department of Environmental Conservation/Prevention and Control of Air contamination and Air Pollution, 6 NYCRR 200 - 234
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.50
6.0
New York State Department of Environmental Conservation, "Hazardous Substance Bulk Storage Regulations,", 6 NYCRR 595-599
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.51
6.0
New York State Department of Environmental Conservation, Storage and Handling of Petroleum/Petroleum Clean-up and Removal, 6 NYCRR 611 and 613
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.52
6.0
State Pollutant Discharge Elimination System (SPDES) Permits, 6 NYCRR 750
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.53
6.0
Sustainable Acquisition Program (Oct 2010)(SC Alternate 1)(Sep 2018), BSA Contract No. DE-SC0012704 - Clause I.134 (DEAR 970.5223-7)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.54
6.0
Pollution Prevention And Right-to-know Information (May 2011) ( Alternate I), BSA Contract No. DE-SC0012704 - Clause I.52 — FAR 52.223-5
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.55
6.0
Estimate Of Percentage Of Recovered Material Content For EPA Designated Items (May 2008), BSA Contract No. DE-SC0012704 - Clause I.54 — FAR 52.223-9
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.56
6.0
Ozone-Depleting Substances and High Global Warming Potential Hydrofluorocarbons (Jun 2016), BSA Contract No. DE-SC0012704 - Clause I.56 (FAR 52.223-11)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.57
6.0
Compliance With Environmental Management Systems (May 2011), BSA Contract No. DE-SC0012704 - Clause I.62 — FAR 52.223-19
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.58
6.0
Aerosols (Jun 2016), BSA Contract No. DE-SC0012704 - Clause I.62A - FAR 52.223-20
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.59
6.0
Foams (Jun 2016), BSA Contract No. DE-SC0012704 - Clause I.62B - FAR 52.223-21
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.60
6.0
EO 13990: Climate Crisis; Efforts to Protect Public Health and Environment and Restore Science, January 20, 2021 (EO 13693 was revoked by EO 13990, EO 14008, EO 14057, EO 14082)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.61
6.0
EO 14008: Tackling the Climate Crisis at Home and Abroad, January 27, 2021
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.62
6.0
(EO 13693 was revoked by EO 13990, EO 14008, EO 14057, EO 14082)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.63
6.0
EO 14057: Catalyzing Clean Energy Industries and Jobs Through Federal Sustainability, December 8, 2021 (EO 13693 was revoked by EO 13990, EO 14008, EO 14057, EO 14082)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.64
6.0
EO 14082: Implementation of the Energy and Infrastructure Provisions of the Inflation Reduction Act of 2022, September 12, 2022 (EO 13693 was revoked by EO 13990, EO 14008, EO 14057, EO 14082)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.65
6.0
CRD – Radioactive Waste Management, O 435.1 Chg 2 (AdminChg)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.66
6.0
Departmental Sustainability, O 436.1 (May 2, 2011)
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.67
6.0
Radiation Protection of the Public and the Environment, O 458.1 Chg 4 (LtdChg)9-15-2020
05/16/2025
In Process
FALSE

G-GBL-ENVIRON.68
6.0
Toxic and Hazardous Materials Storage and Handling Controls, Suffolk County Sanitary Code - Article 12
05/16/2025
In Process
FALSE

GBL-INTEGRAT

GBL-IONSPEC

GBL-LUMI

GBL-OPEREFF

G-GBL-OPEREFF.01
6.0
The EIC collider design choices must consider high levels of operational efficiency and reliability to maximize the physics outcome.
05/16/2025
In Process
FALSE

G-GBL-OPEREFF.02
6.0
Operating procedures which minimize the time between collision runs which includes the time for beam injection, collision adjustment and tuning shall be required to achieve high levels of operational efficiency and reliability to maximize the physics outcome.
05/16/2025
In Process
FALSE

G-GBL-OPEREFF.03
6.0
Consistently achieving good performance parameters near the anticipated design goals shall be required to achieve high levels of operational efficiency and reliability to maximize the physics outcome.
05/16/2025
In Process
FALSE

G-GBL-OPEREFF.04
6.0
Minimizing unscheduled downtime by technically reliable accelerator hardware (thus large mean time between failure, MTBF) and short repair and replacement times (which implies short times between repairs, MTTR) shall be required to achieve high levels of operational efficiency and reliability to maximize the physics outcome.
05/16/2025
In Process
FALSE

G-GBL-OPEREFF.05
6.0
Switching center of mass energy shall not require changing or major moving accelerator components (rewiring maybe unavoidable but shall be designed such as to minimize tie and effort)
05/16/2025
In Process
FALSE

G-GBL-OPEREFF.06
6.0
All components need to be removeable/exchangeable without modifications to buildings and access to tunnels and service buildings.
05/16/2025
In Process
FALSE

G-GBL-OPEREFF.07
6.0
Reliability is defined as time when beam is available as a fraction of scheduled time with beam. The difference between delivered and scheduled time is failure time. The EIC shall meet or exceeded a target of 80% reliability .
05/16/2025
In Process
FALSE

GBL-SAFETY_BUILDINGS&FIRE

G-GBL-SAFETY_BUILDINGS&FIRE.01
6.0
The new Buildings needed for the EIC will be constructed to meet the building and fire protection code that is outlined in the New York State Uniform Fire Prevention and Building Code (2020 Edition) (Division of Code Enforcement and Administration (ny.gov)).
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.02
6.0
This is compliant with the DOE Order 420.lC "Facility Safety," construction of new facilities and significant modifications of existing facilities shall meet the applicable parts of the latest edition of the International Building Code (IBC, 2018 edition) and remains in compliance with DOE Orders and Standards directions in particular with DOE-STD-1066 section 2.2.4.
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.03
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Building Code of New York State Chapters 2 to 35
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.04
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Existing Building Code of New York State, Chapters 2 to 16
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.05
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Fire Code of New York State, Chapters 2 to 67
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.06
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Fuel Gas Code of New York State, Chapters 2 to 6
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.07
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Mechanical Code of New York State, Chapters 2 to 15
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.08
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Plumbing Code of New York State, Chapters 2 to 15
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.09
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Property Maintenance Code of New York State, Chapters 2 to 8
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.10
6.0
The amended and updated version of the NYS Code Books incorporates by reference the 2020 Residential Code of New York State, Chapters 2 to 44
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.11
6.0
Rules on fire protection include 29 CFR 1910 Sub Part L Fire Protection
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.12
6.0
Rules on fire protection include ANSI Z 535.1 Safety Color Code
05/16/2025
In Process
FALSE

G-GBL-SAFETY_BUILDINGS&FIRE.13
6.0
Rules on fire protection include DOE-STD-1066 Fire Protection Design Criteria
05/16/2025
In Process
FALSE

GBL-SAFETY_CRYO&PRESS

GBL-SAFETY_EGRESS

GBL-SAFETY_ELEC

GBL-SAFETY_GEN

GBL-SAFETY_LASERS

GBL-SAFETY_MAGFIELDS

GBL-SAFETY_ODH

GBL-SAFETY_RAD

GBL-SAFETY_RF

GBL-SAFETY_VACUUM

GBL-SAFETY_WATERCOOL

GBL-UPGRADES

Electron Injector System Requirements

General, functional and performance requirements associated with the Electron Injector Systems of the Electron Ion Collider.

Name
WBS
Description
Updated
Status
TBD
EIS : Electron Injector System

EIS-RCS : Rapid Cycling Synchrotron (WBS 6.03.02)

EIS-RCS-MAG : EIS RCS Magnet (WBS 6.03.02.02)

EIS-RCS-MAG-C0 : EIS RCS Magnet C0 (WBS 6.03.02.01)

EIS-RCS-MAG-Q0 : EIS RCS Magnet Q0 (WBS 6.03.02.01)

EIS-RCS-MAG-Q0_6 : EIS RCS Magnet Q0_6 (WBS 6.03.02.01)

EIS-RCS-MAG-S0 : EIS RCS Magnet S0 (WBS 6.03.02.01)

EIS-RCS-MAG-D0 : EIS RCS Magnet D0 (WBS 6.03.02.02)

EIS-RCS-MAG-CORR : RCS Corrector Magnet

EIS-RCS-MAG-DIP : RCS Dipole Magnet

EIS-RCS-MAG-PS : RCS Magnet Power Supply

EIS-RCS-MAG-QUAD : RCS Quadrupole Magnet

EIS-RCS-MAG-SEXT : RCS Sextupole Magnet

EIS-RCS-PS : EIS RCS Magnet Power Supply (WBS 6.03.02.03)

EIS-RCS-PS-C0 : EIS RCS Magnet Power Supply C0 (WBS 6.03.02.03)

EIS-RCS-PS-CO : EIS RCS Magnet Power Supply CO (WBS 6.03.02.03)

EIS-RCS-PS-D0 : EIS RCS Magnet Power Supply D0 (WBS 6.03.02.03)

EIS-RCS-PS-Q0 : EIS RCS Magnet Power Supply Q0 (WBS 6.03.02.03)

EIS-RCS-PS-Q0_6 : EIS RCS Magnet Power Supply Q0_6 (WBS 6.03.02.03)

EIS-RCS-PS-S0 : EIS RCS Magnet Power Supply S0 (WBS 6.03.02.03)

EIS-RCS-PS-SXT : EIS RCS Magnet Power Supply SXT (WBS 6.03.02.03)

EIS-RCS-VAC : EIS RCS Vacuum (WBS 6.03.02.04)

EIS-RCS-INST : EIS RCS Instrumentation (WBS 6.03.02.05)

EIS-RCS-INST-BPM : EIS RCS Instrumentation Beam Position Monitor (WBS 6.03.02.05)

EIS-RCS-INST-BPM-ELEC : EIS HETL Instrumentation Beam Profile Monitor Electronic (WBS 6.03.02.05.01)

EIS-RCS-INST-BPM-PU : EIS RCS Instrumentation Beam Profile Monitor Pick-Up (WBS 6.03.02.05.01)

EIS-RCS-INST-CM : EIS RCS Instrumentation Current and Charge Monitor (WBS 6.03.02.05)

EIS-RCS-INST-SLM : EIS RCS Instrumentation Synchrotron Light Monitor (WBS 6.03.02.05)

EIS-RCS-INST-TM : EIS RCS Instrumentation Tune Monitor (WBS 6.03.02.05)

EIS-RCS-INST-TPM : EIS RCS Instrumentation Transverse Profile Monitor (WBS 6.03.02.05)

EIS-RCS-INST-BBA : RCS Beam Based Alignment Monitor

EIS-RCS-INST-BC : RCS Bunch Charge Monitor

EIS-RCS-INST-BCM : RCS Beam Current Monitor

EIS-RCS-INST-BLM : RCS Beam Loss Monitor

EIS-RCS-INST-BP : RCS Bunch Profile Monitor

EIS-RCS-INST-TUNE : RCS Tune Monitor

EIS-RCS-PPD : EIS Pulsed Power Device System (WBS 6.03.03.05)

EIS-RCS-PPD-INJ_PULSE_KICK : EIS RCS Injection Pulse Power Kicker System (WBS 6.03.03.05.01)

EIS-RCS-PPD-INJ_PULSE_SEPT : EIS RCS Injection Pulsed Power Septum System (WBS 6.03.03.05.02)

EIS-RCS-PPD-EXT_PULSE_KICK : EIS RCS Extraction Pulse Power Kicker System (WBS 6.03.03.05.03)

EIS-RCS-PPD-EXT_RF_KICK : EIS RCS Extraction Pulse Power System (WBS 6.03.03.05.04)

EIS-RCS-PPD-INJ_RF_KICK : EIS RCS Injection Pulse Power System (WBS 6.03.03.05.04)

EIS-RCS-PPD-EXT_PULSE_SEPT : EIS RCS Extraction Pulsed Power Septum System (WBS 6.03.03.05.05)

EIS-RCS-PPD-BUMP : RCS Extraction System Bump Magnet

EIS-RCS-PPD-FKICK : RCS Extraction System Fast Kicker Magnet

EIS-RCS-PPD-SEPT : RCS Extraction System Septum Magnet

EIS-RCS-CONT : EIS RCS Controls (WBS 6.07.02)

EIS-RCS-CONT-INJ : EIS RCS Controls System Injection Tuning (WBS 6.07.02)

EIS-RCS-RF : EIS RCS RF System (WBS 6.08)

EIS-RCS-RF-ACAV:591M

EIS-HETL : EIS High Energy Transfer Line (HETL) System (WBS 6.03.03)

EIS-HETL-MAG : EIS HETL Magnet (WBS 6.03.03.01)

EIS-HETL-MAG-B1 : EIS HETL Magnet B1 (WBS 6.03.03.01)

EIS-HETL-MAG-B2 : EIS HETL Magnet B2 (WBS 6.03.03.01)

EIS-HETL-MAG-D1 : EIS HETL Magnet D1 (WBS 6.03.03.01)

EIS-HETL-MAG-D2 : EIS HETL Magnet D2 (WBS 6.03.03.01)

EIS-HETL-MAG-D3 : EIS HETL Magnet D3 (WBS 6.03.03.01)

EIS-HETL-MAG-INDSEPT1 : EIS HETL Magnet INDSEPT1 (WBS 6.03.03.01)

EIS-HETL-MAG-KH1 : EIS HETL Magnet KH1 (WBS 6.03.03.01)

EIS-HETL-MAG-KV1 : EIS HETL Magnet KV1 (WBS 6.03.03.01)

EIS-HETL-MAG-Q1 : EIS HETL Magnet Q1 (WBS 6.03.03.01)

EIS-HETL-MAG-Q2 : EIS HETL Magnet Q2 (WBS 6.03.03.01)

EIS-HETL-MAG-SEPT1 : EIS HETL Magnet SEPT1 (WBS 6.03.03.01)

EIS-HETL-MAG-SEPT2 : EIS HETL Magnet SEPT2 (WBS 6.03.03.01)

EIS-HETL-MAG-ESR_INJ_BMP : EIS HETL Injection Bump ESR Magnet (WBS 6.03.03.05.08)

EIS-HETL-MAG-BUMP : High Energy Transfer Line Bump Magnet

EIS-HETL-MAG-SEPT : High Energy Transfer Line Septum Magnets

EIS-HETL-PS : EIS HETL Magnet Power Supply (WBS 6.03.03.02)

EIS-HETL-PS-B1 : EIS HETL Magnet Power Supply B1 (WBS 6.03.03.02)

EIS-HETL-PS-B2 : EIS HETL Magnet Power Supply B2 (WBS 6.03.03.02)

EIS-HETL-PS-D1 : EIS HETL Magnet Power Supply D1 (WBS 6.03.03.02)

EIS-HETL-PS-D2 : EIS HETL Magnet Power Supply D2 (WBS 6.03.03.02)

EIS-HETL-PS-D3 : EIS HETL Magnet Power Supply D3 (WBS 6.03.03.02)

EIS-HETL-PS-INDSEPT1 : EIS HETL Magnet Power Supply INDSEPT1 (WBS 6.03.03.02)

EIS-HETL-PS-KH1 : EIS HETL Magnet Power Supply KH1 (WBS 6.03.03.02)

EIS-HETL-PS-KV1 : EIS HETL Magnet Power Supply KV1 (WBS 6.03.03.02)

EIS-HETL-PS-Q1 : EIS HETL Magnet Power Supply Q1 (WBS 6.03.03.02)

EIS-HETL-PS-Q2 : EIS HETL Magnet Power Supply Q2 (WBS 6.03.03.02)

EIS-HETL-PS-SEPT1 : EIS HETL Magnet Power Supply SEPT1 (WBS 6.03.03.02)

EIS-HETL-PS-SEPT2 : EIS HETL Magnet Power Supply SEPT2 (WBS 6.03.03.02)

EIS-HETL-PS-ESR_INJ_BMP : EIS HETL Injection Bump ESR Power Supply (WBS 6.03.03.05)

EIS-HETL-VAC : EIS HETL Vacuum (WBS 6.03.03.03)

EIS-HETL-INST : EIS HETL Instrumentation System (WBS 6.03.03.04)

EIS-HETL-INST-BPM : EIS HETL Instrumentation Beam Profile Monitor (WBS 6.03.03.04)

EIS-HETL-INST-BPM-ELEC : EIS HETL Instrumentation Beam Profile Monitor Electronic (WBS 6.03.03.04.01)

EIS-HETL-INST-BPM-PU : EIS HETL Instrumentation Beam Profile Monitor Pick-Up (WBS 6.03.03.04.01)

EIS-HETL-INST-CM : EIS HETL Instrumentation Charge Monitor (WBS 6.03.03.04)

EIS-HETL-INST-PM : EIS HETL Instrumentation Profile Monitor (WBS 6.03.03.04)

EIS-HETL-INST-IC : High Energy Transfer Line Integrating Current Monitor

EIS-HETL-INST-POL : High Energy Transfer Line Polarization Measurement System

EIS-HETL-ESR : High Energy Transfer Line ESR

EIS-HETL-ESR-INJ : High Energy Transfer Line ESR Injection Section

EIS-HETL-SLINE : High Energy Transfer Stripline

EIS-HETL-SLINE-FKICK : High Energy Transfer Fast Stripline Kicker

EIS-METL : EIS Medium Energy Transfer Line (METL) (WBS 6.03.03)

EIS-METL-MAG : EIS METL Magnet (WBS 6.03.03.01)

EIS-METL-MAG-BMP1 : EIS METL Magnet BMP1 (WBS 6.03.03.01)

EIS-METL-MAG-DH1 : EIS METL Magnet DH1 (WBS 6.03.03.01)

EIS-METL-MAG-DH2 : EIS METL Magnet DH2 (WBS 6.03.03.01)

EIS-METL-MAG-DH3 : EIS METL Magnet DH3 (WBS 6.03.03.01)

EIS-METL-MAG-DV1 : EIS METL Magnet DV1 (WBS 6.03.03.01)

EIS-METL-MAG-KH1 : EIS METL Magnet KH1 (WBS 6.03.03.01)

EIS-METL-MAG-KV1 : EIS METL Magnet KV1 (WBS 6.03.03.01)

EIS-METL-MAG-Q1 : EIS METL Magnet Q1 (WBS 6.03.03.01)

EIS-METL-MAG-Q_BATES : EIS METL Magnet BATES (WBS 6.03.03.01)

EIS-METL-MAG-SEPTUM : EIS METL Magnet SEP1 (WBS 6.03.03.01)

EIS-METL-MAG-SPINSOL : EIS METL Magnet SOL1 (WBS 6.03.03.01)

EIS-METL-MAG-DIP : Medium Energy Transfer Line Dipole Magnet

EIS-METL-MAG-QUAD : Medium Energy Transfer Line Quadrupole Magnet

EIS-METL-PS : EIS METL Magnet Power Supply (WBS 6.03.03.02)

EIS-METL-PS-BMP1 : EIS METL Magnet Power Supply BMP1 (WBS 6.03.03.02)

EIS-METL-PS-DH1 : EIS METL Magnet Power Supply DH1 (WBS 6.03.03.02)

EIS-METL-PS-DH2 : EIS METL Magnet Power Supply DH2 (WBS 6.03.03.02)

EIS-METL-PS-DH3 : EIS METL Magnet Power Supply DH3 (WBS 6.03.03.02)

EIS-METL-PS-DV1 : EIS METL Magnet Power Supply DV1 (WBS 6.03.03.02)

EIS-METL-PS-KH1 : EIS METL Magnet Power Supply KH1 (WBS 6.03.03.02)

EIS-METL-PS-KV1 : EIS METL Magnet Power Supply KV1 (WBS 6.03.03.02)

EIS-METL-PS-Q1 : EIS METL Magnet Power Supply Q1 (WBS 6.03.03.02)

EIS-METL-PS-Q2 : EIS METL Magnet Power Supply Q2 (WBS 6.03.03.02)

EIS-METL-PS-Q3 : EIS METL Magnet Power Supply Q3 (WBS 6.03.03.02)

EIS-METL-PS-Q4 : EIS METL Magnet Power Supply Q4 (WBS 6.03.03.02)

EIS-METL-PS-Q_BATES : EIS METL Magnet Power Supply BATES (WBS 6.03.03.02)

EIS-METL-PS-SEPTUM : EIS METL Magnet Power Supply SEP1 (WBS 6.03.03.02)

EIS-METL-PS-SPINSOL : EIS METL Magnet Power Supply SOL1 (WBS 6.03.03.02)

EIS-METL-VAC : EIS METL Vacuum (WBS 6.03.03.03)

EIS-METL-INST : EIS METL Instrumentation (WBS 6.03.03.04)

EIS-METL-INST-BPM : EIS METL Instrumentation Beam Profile Monitor (WBS 6.03.03.04)

EIS-METL-INST-BPM-ELEC : EIS METL Instrumentation Beam Profile Monitor Electronic (WBS 6.03.03.04.01)

EIS-METL-INST-BPM-PU : EIS METL Instrumentation Beam Profile Monitor Pick-Up (WBS 6.03.03.04.01)

EIS-METL-INST-CM : EIS METL Instrumentation Charge Monitor (WBS 6.03.03.04)

EIS-METL-INST-PM : EIS METL Instrumentation Profile Monitor (WBS 6.03.03.04)

EIS-METL-INJ : Medium Energy Transfer Line Electron Injector Injection Section

EIS-METL-INJ-MAG : Medium Energy Transfer Line Electron Injector Injection Section Magnet

EIS-METL-INJ-MAG-FKICK : Medium Energy Transfer Line Electron Injector Injection Section Fast Kicker Magnet

EIS-METL-INJ-MAG-SEP : Medium Energy Transfer Line Electron Injector Injection Section Septum Magnet

EIS-METL-RCS : Medium Energy Transfer Line RCS

EIS-METL-RCS-INJ : Medium Energy Transfer Line RCS Injection Section

EIS-METL-RCS-INJ-MAG : Medium Energy Transfer Line RCS Injection Section Magnet

EIS-METL-RCS-INJ-MAG-BUMP : Medium Energy Transfer Line RCS Injection Section Bump Magnet

EIS-METL-RF : Medium Energy Transfer Line RF

EIS-METL-RF-FKICK : Medium Energy Transfer Line Fast RF Kicker

EIS-GUN : EIS Electron Source Gun (WBS 6.03.04.01)

EIS-GUN-TIMING : EIS Electron Source Gun Timing (WBS 6.03.04.01)

EIS-GUN-VAC : EIS Electron Source Gun Vacuum (WBS 6.03.04.01.02)

EIS-GUN-ESOURCE : EIS Electron Source Gun Electron Beam (WBS 6.03.04.02)

EIS-GUN-LASER : EIS Electron Source Gun Laser (WBS 6.03.04.02)

EIS-GUN-INST : EIS Electron Source Gun Instrumentation (WBS 6.03.04.02.06)

EIS-GUN-INST-EM : EIS Electron Source Gun Instrumentation Emittance Monitor (WBS 6.03.04.02.06)

EIS-GUN-INST-F_Cup : EIS Electron Source Gun Instrumentation Faraday Cup (WBS 6.03.04.02.06)

EIS-GUN-INST-MOT : EIS Electron Source Gun Instrumentation Mott Polarimeter (WBS 6.03.04.02.06)

EIS-GUN-INST-SR : EIS Electron Source Gun Instrumentation Spin Rotator (WBS 6.03.04.02.06)

EIS-GUN-CONT : EIS Electron Source Gun Controls System (WBS 6.07.02)

EIS-GUN-MAG : Gun Diagnostic Line Magnet

EIS-LINAC : EIS Electron Source LINAC (WBS 6.03.04.01)

EIS-LINAC-ACCEL : EIS Electron Source LINAC Accelerating System (WBS 6.03.04.01)

EIS-LINAC-BEAM : EIS Electron Source LINAC Beamline Electron Bunch (WBS 6.03.04.01)

EIS-LINAC-BUNCH_118MHZ : EIS Electron Source LINAC Buncher 118MHz (WBS 6.03.04.01)

EIS-LINAC-BUNCH_2856MHZ : EIS Electron Source LINAC Buncher 2856MHz (WBS 6.03.04.01)

EIS-LINAC-BUNCH_560MHZ : EIS Electron Source LINAC Buncher 560MHz (WBS 6.03.04.01)

EIS-LINAC-CONT : EIS Electron Source LINAC Controls (WBS 6.03.04.01)

EIS-LINAC-DECHIRP : EIS Electron Source LINAC De Chirp System (WBS 6.03.04.01)

EIS-LINAC-INST : EIS Electron Source LINAC Instrumentation (WBS 6.03.04.01)

EIS-LINAC-INST-BLM : EIS Electron Source LINAC Bunch Length Monitor (WBS 6.03.04.01)

EIS-LINAC-INST-BPM : EIS Electron Source LINAC Beam Position Monitor (WBS 6.03.04.01)

EIS-LINAC-INST-CM : EIS Electron Source LINAC Bunch Charge Monitors (ICT, WCM, FC) (WBS 6.03.04.01)

EIS-LINAC-INST-PM : EIS Electron Source LINAC Transverse Profile Monitor (PM) (WBS 6.03.04.01)

EIS-LINAC-VAC : EIS Electron Source LINAC Vacuum (WBS 6.03.04.01)

EIS-LINAC-ZIGZAG : EIS Electron Source LINAC Zigzag (WBS 6.03.04.01)

EIS-LINAC-ZIGZAG-MAG : Zigzag Section Magnet

EIS-LINAC-ZIGZAG-MAG-CHIRP : Zigzag Section De-Chirp Cavity

EIS-LINAC-ZIGZAG-MAG-DIP : Zigzag Section Dipole Magnet

EIS-LINAC-ZIGZAG-MAG-QUAD : Zigzag Section Quadrupole Magnet

EIS-LINAC-BNCHR : Buncher Section

EIS-LINAC-BNCHR-INST : Buncher Section Instrumentation

EIS-LINAC-BNCHR-INST-BLM : Buncher Section Bunch Length Monitor

EIS-LINAC-BNCHR-INST-BPM : Buncher Section Beam Position Monitor

EIS-LINAC-BNCHR-INST-EM : Buncher Section Emittance Monitor

EIS-LINAC-BNCHR-INST-ICT : Buncher Section Integrating Current Transformer Monitor

EIS-LINAC-BNCHR-INST-LM : Buncher Section Beam Loss Monitor

EIS-LINAC-BNCHR-INST-TPM : Buncher Section Transverse Profile Monitor

EIS-LINAC-BNCHR-MAG : Buncher Section Magnet

EIS-LINAC-BNCHR-MAG-CORR : Buncher Section Corrector Magnet

EIS-LINAC-BNCHR-MAG-HELM : Buncher Section Helmholtz Magnet

EIS-LINAC-BNCHR-MAG-SOL : Buncher Section Solenoid Magnet

EIS-LINAC-BNCHR-RF : Buncher Section RF System

EIS-LINAC-BNCHR-VAC : Buncher Section Vacuum

EIS-LINAC-CAV : LINAC RF Cavity

EIS-LINAC-DUMP : LINAC Beam Dump

EIS-LINAC-DUMP-INST : LINAC Dump Line

EIS-LINAC-MAG : LINAC Magnet

EIS-LINAC-MAG-QUAD : LINAC Quadrupole Magnet

EIS-LINAC-MAG-WF : LINAC Window Frame Steering Magnet

EIS-LETL : Gun Low Energy Transfer Line

EIS-PROT : Protection System

EIS-PROT-ABORT : Protection System Beam Abort

EIS-PROT-COLL : Protection System Collimator

EIS-PROT-DUMP : Protection System Beam Dump

EIS-TLINE

Electron Storage Ring Requirements

General, functional and performance requirements associated with the Electron Storage Ring of the Electron Ion Collider.

Name
WBS
Description
Updated
Status
TBD
ESR : Electron Storage Ring

G-ESR.01
6.02.02
The ESR shall be able to accept single bunches of spin-polarized electrons as injected from the RCS at the energies specified in the Master Parameter Table (MPT). [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-MAG.05
6.02.02
All ESR quadrupoles shall be designed to facilitate beam based alignment.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

F-ESR-MAG.10
6.02.02
The ESR main arc quadrupoles shall be powered to accommodate the Lattice requirements having the appropriate number of circuits to power the focusing and defocusing quadrupoles in each sextant of the ESR.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

F-ESR.04
6.02.02
The ESR alignment requirements are established by dynamic aperture and polarization tracking. The ESR RMS alignment tolerances shall be such that all the beam parameter listed in the MPT can be satisfied. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.07
6.02.02.03.05.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.07
6.02.02.03.05.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

F-ESR.01
6.02.02
The ESR lattice shall provide a minimum dynamic aperture of 10 sigma with respect to Gaussian electron beam distribution in all three dimensions (horizontal, vertical, and longitudinal) having a vertical emittance of half the horizontal design emittance.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.01
6.02.02.03.04.01
The field harmonic measurements shall be measured at the reference radius of 25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.05
6.02.02.03.05.01
The magnet reference radius for field homogeneity shall be 15 (mm).
02/09/2026
Approved
FALSE

P-ESR-VAC.10
6.02.02.06
The maximum beam excursion orbit shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-TV:20.02.05
6.02.02.03.05.01
The magnet reference radius for homogeneity shall be 17 (mm).
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR.12
6.02.02
The ESR Lattice shall contain provisions for correctors such as skew quadrupoles, Dipole correctors etc. as needed.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

G-ESR.02
6.02.02
The ESR shall have a depolarization time long enough to ensure an average polarization of 70%, assuming an injected polarization level of 80% and a bunch replacement rate of up to two bunches per second.
02/09/2026
Approved
FALSE

F-ESR-VAC.01
6.02.02
The ESR vacuum chamber shall provide sufficient horizontal and vertical aperture to accommodate; a +/-15 sigma beam, where the vertical RMS beam size is based on the emittance of a fully coupled beam, plus an additional 10 mm horizontal and 5 mm vertical margin to account for expected orbit errors.
02/09/2026
Approved
FALSE

P-ESR-VAC.02
6.02.02.06
The typical (standard) vacuum chamber aperture shall be 80 x 36 mm.
02/09/2026
Approved
FALSE

P-ESR-VAC.03
6.02.02.06
Special aperture requirements and/or aperture file shall be provided by or approved by physics.
02/09/2026
Approved
FALSE

F-ESR-VAC.02
6.02.02
The dynamic pressure around the ESR shall be consistent with a beam gas lifetime of >10[hrs] with the design currents after an integrated beam current of 1000 [A.h].
02/09/2026
Approved
FALSE

P-ESR-VAC.07
6.02.02.06
There shall be no upper pressure limit as long as the average pressure is maintained.
02/09/2026
Approved
FALSE

P-ESR-VAC.06
6.02.02.06
The average vacuum level in the ESR Arc sections after conditioning (for 1000Ahrs) shall be <5x10-9 Torr.
02/09/2026
Approved
FALSE

P-ESR-VAC.08
6.02.02.06
On 15 m on each side (or one vacuum sector) of the SRF cavities shall be processed to class ISO 5.
02/09/2026
Approved
FALSE

F-ESR-VAC.03
6.02.02
There shall be no pressure bumps in the ESR exceeding (TBD)[Torr]
02/09/2026
Approved
FALSE

F-ESR-VAC.04
6.02.02
The ESR vacuum chamber and all its components shall be designed to withstand a total synchrotron radiation load of 10 MW, considering the uneven linear load particularly related to the super-bends.
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR-VAC.05
6.02.02
The ESR vacuum chamber material shall be chosen such that the SR power can be intercepted by the arc chambers and in addition good radiation shielding will be provided to prevent damage to other components.
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR-VAC.06
6.04.05
The impedance of the entire ESR vacuum system, including the interaction regions in IR06 and IR08, shall allow for the bunch intensities, beam currents, and bunch numbers contained in the Master Parameter Table (MPT). [Document#:EIC-SEG-RSI-005]
05/16/2025
Approved
FALSE

P-ESR-VAC.01
6.02.02.06
The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.
02/09/2026
Approved
FALSE

F-ESR.06
6.02.02
The ESR shall deliver a spin polarized electron beam with time-averaged polarization of at least 70 percent.
02/09/2026
Approved
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

F-ESR.07
6.02.02
The polarization lifetime of the beam in the ESR shall be maximized to maximize time-averaged polarization based on the given replacement frequency and polarization degree of the bunches provided by the injector.
02/09/2026
Approved
FALSE

F-ESR.08
6.02.02
The polarization lifetime maximum optimization in the ESR shall be accomplished by proper spin matching which minimizes the spin diffusion.
02/09/2026
Approved
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

F-ESR.10
6.02.02
The ESR shall include a system to absorb the energy of bunches which are periodically and continually ejected from the ESR to accommodate freshly polarized bunches.
02/09/2026
Approved
FALSE

F-ESR.09
6.02.02
The ESR shall be capable of having all polarized electron bunches in the ring continually replaced while the electron beam is in collision with a hadron beam, thus allowing for arbitrary spin patterns for the collider experiments.
02/09/2026
Approved
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

F-ESR.11
6.02.02
The ESR shall be capable of delivering bunches with longitudinal spins to the IP.
02/09/2026
Approved
FALSE

G-ESR.03
6.02.02
The ESR shall provide electron bunches having the bunch parameters specified in the MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-ARC.01
6.02.02
The ESR lattice arc magnet structure shall contain an array of regular FODO cells
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.02
6.02.02
The ESR lattice arc magnet structure shall consists of a quadrupole, a sextupole, a bending section, and a dipole corrector in each arc half-cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.03
6.02.02
The ESR lattice arc magnet structure shall accommodate slightly different average arc radii in the individual arcs by adjusting the drift spaces between individual elements in each FODO cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.04
6.02.02
The ESR beamline bending sections shall contain three individual dipole magnets, referred to as “super-bends”.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.05
6.02.02
The ESR super-bends shall generate additional synchrotron radiation damping to support a large beam-beam parameter of 0.1 and to create the required horizontal design emittance in the Master Parameter Table (MPT) when the ESR is operated at energies below 10 GeV. [Document: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.06
6.02.02
The polarity of the ESR center bending magnet shall be capable of being wired in reverse to control the beam emittance and to damp the beam. The polarity will be dictated by the beam energy.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.07
6.02.02
The FODO cell shall operate with a horizontal and vertical betatron phase advance of 60 degrees per arc section at beam energies of 10 GeV and below.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

F-ESR-ARC.08
6.02.02
The ESR Sextupole wiring scheme shall create the required sextupole families needed per arc to maximize dynamic aperture at the 60 degrees per FODO cell phase advance at < 10 GeV.
02/09/2026
Approved
FALSE

F-ESR-ARC.09
6.02.02
The FODO cell shall operate with a horizontal and vertical betatron phase advance of 90 degrees per arc section to maintain the required horizontal beam emittance defined in the MPT at 18 GeV. [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-ARC.11
6.02.02
The vertical emittance shall be controlled by appropriate beam orbit manipulations and horizontal-vertical cross coupling.
02/09/2026
Approved
FALSE

F-ESR-INST.01
6.02.02
The ESR instrumentation system shall include dual-plane Beam Position Monitors (BPMs) adjacent to each vertically focusing quadrupole. Provisions shall be made in the vacuum chamber design to install additional dual-plane BPMs at the horizontally focusing quadrupoles, if needed.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.01
6.02.02.05.01.02
The ESR beam position monitor pick-up shall provide dual plane (horizontal and vertical) beam positional measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.10
6.02.02.05.01.02
The roll angle error of the ESR BPM pickup, given as the horizontal measurement plane defined by the BPM fiducials witrh respect to. the horizontal plane of the ESR ring shall be less than +/- 20 (mrad).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05
6.02.02.05.01.02
The ESR BPM system shall fulfill resolution and accuracy requirements over the following two defined transverse beam position ranges with respect vacuum chamber center, referenced to the mechanical fiducials on the BPM pickups.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.13
6.02.02.05.01.02
The beam position monitor pick-up assembly shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

F-ESR-INST.02
6.02.02
The ESR BPMs shall have turn-by-turn orbit measurement capability based on a single, remotely selectable bunch out of the fully filled bunch train to enable injection optimization.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-ELEC.01
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following capabilities defined for the low intensity pilot injection energies and high intensity collision energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following time resolutions for data refresh defined for the beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.03
6.02.02.05.01.01
The ESR BPM Electronics shall have the following time resolutions for data logging defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04
6.02.02.05.01.01
The ESR BPM Electronics shall have the following measurement resolutions defined for beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.05
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.06
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate in an ambient temperature degree from X (C) to X (C).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-PU.01
6.02.02.05.01.02
The ESR beam position monitor pick-up shall provide dual plane (horizontal and vertical) beam positional measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.10
6.02.02.05.01.02
The roll angle error of the ESR BPM pickup, given as the horizontal measurement plane defined by the BPM fiducials witrh respect to. the horizontal plane of the ESR ring shall be less than +/- 20 (mrad).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05
6.02.02.05.01.02
The ESR BPM system shall fulfill resolution and accuracy requirements over the following two defined transverse beam position ranges with respect vacuum chamber center, referenced to the mechanical fiducials on the BPM pickups.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.13
6.02.02.05.01.02
The beam position monitor pick-up assembly shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

F-ESR-INST.03
6.02.02
The ESR instrumentation system shall include a beam current monitor to measure average beam current.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.01
6.02.02.05.03
The ESR DC Current Transformer shall have the ability to measure the average beam current over a range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.02
6.02.02.05.03
The ESR DC Current Transformer shall provide an average current measurement with a resolution of less than 5 (uA /√Hz).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.03
6.02.02.05.03
The ESR DC Current Transformer measurement drift tolerance shall be less than 10 (uA) over 1 (hr).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.04
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy of better than +/- 1 (%) at 250 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.05
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy between the range of 250 (mA) to 2.5 (A) at +/- 0.5 (%).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.07
6.02.02.05.03
The ESR DC Current Transformer system shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.10
6.02.02.05.03
The ESR DC Current Transformer Calibration system shall be capable of providing an equivalent ESR DC current over the full operating range within 0.25% over the beam current range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.09
6.02.02.05.03
The ESR DC Current Transformer system shall have a remote controlled self calibration system
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.11
6.02.02.05.03
The ESR DC Current Transformer measured average current shall be archived at a rate of 1 Hz
02/09/2026
Approved
FALSE

F-ESR-INST.04
6.02.02
The ESR instrumentation system shall include a system to measure individual bunch charges and bunch pattern.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.01
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring bunch patterns ranging from a single bunch, to a filled ring with 1,160 bunches.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.02
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring witness bunch for 1/e for a fixed gain over the beam lifetime.
02/09/2026
Approved
FALSE

F-ESR-INST.05
6.02.02
The ESR instrumentation system shall include a system to measure transverse beam profiles.
02/09/2026
Approved
FALSE

P-ESR-INST-TRANSFB.02
6.02.02.05.05.01
The transverse feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSFB.01
6.02.02.05.05.01
Placeholder, Input needed TBD
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSFB.03
6.02.02.05.05.01
Placeholder, Input needed TBD
02/09/2026
In Process
FALSE

F-ESR-INST.06
6.02.02
The ESR instrumentation system shall include a system to measure longitudinal beam profiles.
02/09/2026
Approved
FALSE

P-ESR-INST-LONGIFB.01
6.02.02.05.05.02
The requirements for longitudinal feedback are ??? TBD
02/09/2026
In Process
FALSE

P-ESR-INST-LONGIFB.02
6.02.02.05.05.02
The Longitudinal feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

F-ESR-INST.07
6.02.02
The ESR longitudinal bunch profile monitor needs turn-by-turn capability based on a single bunch in the fully filled bunch train to allow timing and energy adjustment for injection optimization.
02/09/2026
Approved
FALSE

P-ESR-INST-LONGIFB.01
6.02.02.05.05.02
The requirements for longitudinal feedback are ??? TBD
02/09/2026
In Process
FALSE

P-ESR-INST-LONGIFB.02
6.02.02.05.05.02
The Longitudinal feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

F-ESR-INST.08
6.02.02
The ESR instrumentation system shall include system to measure H & V betatron tunes.
02/09/2026
Approved
FALSE

P-ESR-INST-TMK.01
6.02.02.05.03
Stripline kickers (H & V) shall be used to excite the beam so tunes can be measured using turn-by-turn BPM data.
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.02
6.02.02.05.03
The magnitude of the kick required for the horizontal kicker shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.03
6.02.02.05.03
The magnitude of the kick required for the vertical kicker shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.05
6.02.02.05.03
The location of the tune meter kicker striplines in the ESR shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.04
6.02.02.05.03
The kicker waveform (risetime and shape) requirements shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.06
6.02.02.05.03
The impedance of the kicker beamline device shall be approved by beam Physics.
02/09/2026
In Process
FALSE

F-ESR-INST.09
6.02.02
The ESR instrumentation system shall facilitate all required feedback systems (slow transverse, longitudinal and transverse bunch-by-bunch)
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.02
6.02.04.02
The slow orbit feedback correction output rate shall be 10 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.01
6.02.04.02
The slow orbit feedback BPM data averaging period shall be tbd -
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSSLFB.01
6.02.02.05.05.01
The transverse slow feedback system bandwidth shall bs 10 Hz
02/09/2026
In Process
FALSE

F-ESR-INST.10
6.02.02
The ESR instrumentation system shall include beam loss monitor system with detectors located only at select regions of the ESR.
02/09/2026
Approved
FALSE

P-ESR-INST-BLM.01
6.02.02.05.02
BLM shall be needed to needed to protect sensitive equipment.
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.02
6.02.02.05.02
The number of BLM installed in the ESR shall be TBD ea
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.03
6.02.02.05.02
BLM shall be installed at the following locations in the ESR TBD
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.04
6.02.02.05.02
The sensitivity of the BLM detectors shall be TBD units?
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.05
6.02.02.05.02
Where possible existing RHIC BLM's can be relocated to identify ESR & HSR losses
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.06
6.02.02.05.02
The response time from loss detection to abort shall be TBD us
02/09/2026
In Process
FALSE

F-ESR-MAG.01
6.02.02
The ESR magnets shall meet the requirements defined by the physics lattice.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.02
6.02.02
The ESR magnets shall have the required field quality to meet the operational needs.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.03
6.02.02.03.05.01
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.03
6.02.02
The “super-bends” in the ESR ARC sections shall consist of two long dipoles on either end of a short dipole.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.04
6.02.02
The good field region of the ESR dipoles shall extend over a horizontal range of at least 4 centimeters in the radial direction, for all operational beam energies from 5 to 18 GeV. This will take into account the orbit changes due to the reverse bends.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.05
6.02.02
All ESR quadrupoles shall be designed to facilitate beam based alignment.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

F-ESR-MAG.06
6.02.02
The maximum integrated field strength of the ESR FODO sextupoles needs to be sufficient to provide chromatic correction at all energies from 5 to 18 GeV with two low-beta interaction regions.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

F-ESR-MAG.07
6.02.02
The aperture of all ESR magnets shall be large enough to accommodate the ESR vacuum chamber.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.05
6.02.02.03.04.01
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 52 and 150 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.09
6.02.02.03.04.01
The magnet pole tip radius shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 150 and 52 mm.
02/09/2026
Approved
FALSE

F-ESR-MAG.08
6.02.02
The ESR Shall have a conventional orbit corrector scheme, with single-plane correctors located at the respective quadrupoles. The strength of these correctors needs to be chosen to correct for any source of orbit distortion and should have enough margin for beam based diagnostic purposes, Harmonic Spin bumps and emittance generating bumps.
02/09/2026
Approved
FALSE

F-ESR-MAG.09
6.02.02
All dipoles in the ESR, including those in IRs 6 and 8, shall be connected in series to a single main power supply.
02/09/2026
Approved
FALSE

F-ESR-MAG.10
6.02.02
The ESR main arc quadrupoles shall be powered to accommodate the Lattice requirements having the appropriate number of circuits to power the focusing and defocusing quadrupoles in each sextant of the ESR.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

F-ESR-MAG.11
6.02.02
The ESR quadrupoles in the straight sections IR02, IR04, IR10 and IR12 and in the transition from the arc to the straight section structure shall be wired to provide the optimized betatron phase advance across each straight section, as required for dynamic aperture optimization.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.12
6.02.02
The ESR quadrupoles shall have provisions to vary individual strengths by approximately 1% for beam-based alignment purposes.
02/09/2026
Approved
FALSE

F-ESR-MAG.13
6.02.02
The ESR sextupole power supply scheme shall be laid out such that the sextupole family structure can be configured for both the 60 and the 90 degree lattice along with a small number of individually powered sextupoles in the transition regions between arcs and straight sections with minimal effort, cost and minimizing any risk of error.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-PS.01
6.02.02
The ESR magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

F-ESR-PS.02
6.02.02
The ESR magnet power supplies shall be capable of providing the stability the ESR needs to operate
02/09/2026
Approved
FALSE

F-ESR-RF.01.01
6.02.02
The ESR RF Systems shall be designed to fulfill all necessary parameters as set by the Master Parameter Table (MPT). [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

F-ESR-RF.01.02
6.02.02
The ESR RF System shall utilize superconductivity.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.02.01
6.08.04.01
The cavity helium bath maximum designed operational temperature shall be 2 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.02
6.08.04.01
The cavity helium bath maximum designed operational pressure shall be 30 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.03
6.08.04.01
The cavity helium bath designed operational pressure stability shall be ±0.1 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.04
6.08.04.01
The SRF Cryomodule cavity helium jacket shall have a minimum helium bath vapor surface area of 0.049 m^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.05
6.08.04.01
The maximum designed helium supply operational temperature shall be 5.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.06
6.08.04.01
The range of the designed helium supply operational pressure shall be 3 to 3.5 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.07
6.08.04.01
The range of the designed combined helium return temperature shall be 20 to 100 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.08
6.08.04.01
The range of the designed combined helium return pressure shall be 2.4 to 2.6 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.09
6.08.04.01
The maximum designed sub-atmospheric helium return temperature shall be 4.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.10
6.08.04.01
The maximum designed sub-atmospheric helium return pressure shall be 30 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.07
6.08.04.01
The SRF cavity maximum Niobium temperature shall be 5 K during operation.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.01
6.08.04.01
The warm beamline maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.02
6.08.04.01
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.03
6.08.04.01
The beamline vacuum maximum leak rate shall be 5e-10 mbar L/s.
05/16/2025
Approved
FALSE

F-ESR-RF.03.01
6.02.02
The ESR RF Systems shall conform to the ESR lattice.
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-RF-ACAV:591S.10.04
6.08.04.01
The SRF cryomodule cavity beam axis to the tunnel floor shall be vertically alignable to 1381.09 ± 20 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.05
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.06
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.07
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.09
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.08
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.04 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.10
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

F-ESR-RF.03.02
6.02.02
The ESR RF Systems shall be installed in the straight sections of the ESR lattice within the existing RHIC tunnel in IR10.
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-RF-ACAV:591S.10.01
6.08.04.01
The SRF Cryomodule maximum length shall be 7.2 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.02
6.08.04.01
The SRF Cryomodule maximum width shall be 2.15 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.03
6.08.04.01
The SRF Cryomodule maximum height shall be 1.7 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.04
6.08.04.01
The SRF cryomodule cavity beam axis to the tunnel floor shall be vertically alignable to 1381.09 ± 20 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.05
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.06
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.07
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.08
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.04 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.09
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.10
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.11
6.08.04.01
The SRF Cryomodule cryogenic box maximum height shall be 2.1m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.13
6.08.04.01
The SRF Cryomodule cryogenic box maximum length (not including vacuum jacketed lines) shall be 1.5 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.12
6.08.04.01
The SRF Cryomodule cryogenic box maximum width shall be 1.0 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.14
6.08.04.01
The SRF Cryomodule cryogenic valve box minimum vertical stay clear height above the cryomodule shall be 0.92 m.
05/16/2025
Approved
FALSE

F-ESR-RF.06.01
6.02.02
The ESR RF Systems shall conform to the EIC Code of Record.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.09.01
6.08.04.01
All cryomodule surfaces accessible to workers shall be within the temperature range of 283 to 333 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.02
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME B31.3.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.03
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME BPVC.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.04
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASTM C1055.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.05
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.06
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70E.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.07
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.09
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.08
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.10
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards as directed by the DOE Vacuum Vessel Consensus Standards.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.14
6.08.04.01
The SRF Cryomodule shall be designed to meet or exceed the maximum working pressures defined by the EIC pressure document (Document No. TBD).
05/16/2025
Approved
FALSE

F-ESR-RF.06.02
6.02.02
The ESR RF Systems within the tunnel shall operate within its yearly radiation exposure budget.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

F-ESR-RF.06.04
6.02.02
The ESR RF Systems shall have a minimum operating lifetime of 20 years
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.01
6.08.04.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.02
6.08.04.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.03
6.08.04.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.08
6.08.04.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

F-ESR-RF.06.05
6.02.02
The ESR RF System shall be designed to minimize unscheduled downtime, maintenance time and repair time to achieve ESR operational availability.
02/09/2026
Approved
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.11
6.08.04.01
The minimum cooldown rate of the SRF cavity between 300K to 150K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.12
6.08.04.01
The minimum cooldown rate of the SRF cavity between 150K to 50K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.13
6.08.04.01
The minimum cooldown rate of the SRF cavity between 50K to 4.5K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.14
6.08.04.01
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.15
6.08.04.01
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.16
6.08.04.01
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.17
6.08.04.01
The SRF Cryomodule shall achieve a full warm-up cycle from 4K to 295K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.01
6.08.04.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.02
6.08.04.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.03
6.08.04.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.04
6.08.04.01
The manufactured SRF Cryomodule Cavity shall produce no field emission at 4 MV.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.08
6.08.04.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.07
6.08.04.01
The active SRF cavity tuning mechanism components (motor/gearbox/drive mechanism) shall be replaceable and maintainable in-situ.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.02
6.08.04.01
The minimum SRF Cavity slow tuner tuning rate shall be 800 Hz/s.
05/16/2025
Approved
FALSE

F-ESR-RF.07.01.01
6.02.02
The ESR Storage RF System shall be designed to accelerate electrons.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.05.01
6.08.04.01
The total SRF maximum RF longitudinal impedance (accelerator definition) shall be 52 MΩ Ghz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.02
6.08.04.01
The total SRF maximum RF horizontal impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.03
6.08.04.01
The total SRF maximum RF vertical impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.05
6.08.04.01
The maximum broadband RF power emitted from the cryomodule shall be 30 kW for all EIC design energies and currents.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.04
6.08.04.01
The SRF cavity nominal cold frequency shall be 591.149 MHz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.03
6.08.04.01
The SRF cavity field probe Qext range shall be 1.00E11 to 2.00E11.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

F-ESR-STRAIGHT.01
6.02.02
The phase advance of each straight section shall be tunable in order to optimize the dynamic aperture of the ESR.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.01
6.02.02.03.04.01
The field harmonic measurements shall be measured at the reference radius of 25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.02
6.02.02.03.04.01
The reference integrated field for the measurement shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-STRAIGHT.02
6.02.02
The ESR straight sections IR02, IR04, IR10 and IR12 shall be based on FODO cells.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.02
6.02.02.03.04.01
The reference integrated field for the measurement shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-STRAIGHT.03
6.02.02
Ther ESR shall have matching sections at the ends of each of the straight sections to compensate for the different FODO cell lengths with respect to the arc FODO cells imposed by geometric constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.06
6.02.02.03.04.01
The maximum physical magnet length shall be 0.88 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11
6.02.02.03.04.01
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.01
6.02.02.03.04.01
The maximum magnet axial dimensions shall be X = 45 cm and Y = 45 cm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

F-ESR-VAC.01
6.02.02
The ESR vacuum chamber shall provide sufficient horizontal and vertical aperture to accommodate; a +/-15 sigma beam, where the vertical RMS beam size is based on the emittance of a fully coupled beam, plus an additional 10 mm horizontal and 5 mm vertical margin to account for expected orbit errors.
02/09/2026
Approved
FALSE

P-ESR-VAC.02
6.02.02.06
The typical (standard) vacuum chamber aperture shall be 80 x 36 mm.
02/09/2026
Approved
FALSE

P-ESR-VAC.03
6.02.02.06
Special aperture requirements and/or aperture file shall be provided by or approved by physics.
02/09/2026
Approved
FALSE

F-ESR-VAC.02
6.02.02
The dynamic pressure around the ESR shall be consistent with a beam gas lifetime of >10[hrs] with the design currents after an integrated beam current of 1000 [A.h].
02/09/2026
Approved
FALSE

P-ESR-VAC.07
6.02.02.06
There shall be no upper pressure limit as long as the average pressure is maintained.
02/09/2026
Approved
FALSE

P-ESR-VAC.06
6.02.02.06
The average vacuum level in the ESR Arc sections after conditioning (for 1000Ahrs) shall be <5x10-9 Torr.
02/09/2026
Approved
FALSE

P-ESR-VAC.08
6.02.02.06
On 15 m on each side (or one vacuum sector) of the SRF cavities shall be processed to class ISO 5.
02/09/2026
Approved
FALSE

F-ESR-VAC.03
6.02.02
There shall be no pressure bumps in the ESR exceeding (TBD)[Torr]
02/09/2026
Approved
FALSE

F-ESR-VAC.04
6.02.02
The ESR vacuum chamber and all its components shall be designed to withstand a total synchrotron radiation load of 10 MW, considering the uneven linear load particularly related to the super-bends.
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR-VAC.05
6.02.02
The ESR vacuum chamber material shall be chosen such that the SR power can be intercepted by the arc chambers and in addition good radiation shielding will be provided to prevent damage to other components.
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR-VAC.06
6.04.05
The impedance of the entire ESR vacuum system, including the interaction regions in IR06 and IR08, shall allow for the bunch intensities, beam currents, and bunch numbers contained in the Master Parameter Table (MPT). [Document#:EIC-SEG-RSI-005]
05/16/2025
Approved
FALSE

P-ESR-VAC.01
6.02.02.06
The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.
02/09/2026
Approved
FALSE

F-ESR.01
6.02.02
The ESR lattice shall provide a minimum dynamic aperture of 10 sigma with respect to Gaussian electron beam distribution in all three dimensions (horizontal, vertical, and longitudinal) having a vertical emittance of half the horizontal design emittance.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.01
6.02.02.03.04.01
The field harmonic measurements shall be measured at the reference radius of 25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.05
6.02.02.03.05.01
The magnet reference radius for field homogeneity shall be 15 (mm).
02/09/2026
Approved
FALSE

P-ESR-VAC.10
6.02.02.06
The maximum beam excursion orbit shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-TV:20.02.05
6.02.02.03.05.01
The magnet reference radius for homogeneity shall be 17 (mm).
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR.04
6.02.02
The ESR alignment requirements are established by dynamic aperture and polarization tracking. The ESR RMS alignment tolerances shall be such that all the beam parameter listed in the MPT can be satisfied. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.07
6.02.02.03.05.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.07
6.02.02.03.05.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

F-ESR.02
6.02.02
The minimum dynamic aperture shall be achieved in two optics configurations (60 and 90 degrees betatron phase advance per FODO cell) at all operational beam energies in the Master Parameter Table (MPT), and with one and with two low-beta insertions. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-VAC.10
6.02.02.06
The maximum beam excursion orbit shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR.12
6.02.02
The ESR Lattice shall contain provisions for correctors such as skew quadrupoles, Dipole correctors etc. as needed.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

G-ESR.04
6.02.02
The ESR shall have an average arc bending radius of approximately 380 meters
02/09/2026
Approved
FALSE

F-ESR-ARC.01
6.02.02
The ESR lattice arc magnet structure shall contain an array of regular FODO cells
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.02
6.02.02
The ESR lattice arc magnet structure shall consists of a quadrupole, a sextupole, a bending section, and a dipole corrector in each arc half-cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.03
6.02.02
The ESR lattice arc magnet structure shall accommodate slightly different average arc radii in the individual arcs by adjusting the drift spaces between individual elements in each FODO cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.04
6.02.02
The ESR beamline bending sections shall contain three individual dipole magnets, referred to as “super-bends”.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.01
6.02.02
The ESR magnets shall meet the requirements defined by the physics lattice.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.02
6.02.02
The ESR magnets shall have the required field quality to meet the operational needs.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.03
6.02.02.03.05.01
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.03
6.02.02
The “super-bends” in the ESR ARC sections shall consist of two long dipoles on either end of a short dipole.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.04
6.02.02
The good field region of the ESR dipoles shall extend over a horizontal range of at least 4 centimeters in the radial direction, for all operational beam energies from 5 to 18 GeV. This will take into account the orbit changes due to the reverse bends.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.07
6.02.02
The aperture of all ESR magnets shall be large enough to accommodate the ESR vacuum chamber.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.05
6.02.02.03.04.01
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 52 and 150 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.09
6.02.02.03.04.01
The magnet pole tip radius shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 150 and 52 mm.
02/09/2026
Approved
FALSE

F-ESR-PS.01
6.02.02
The ESR magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

F-ESR-MAG.09
6.02.02
All dipoles in the ESR, including those in IRs 6 and 8, shall be connected in series to a single main power supply.
02/09/2026
Approved
FALSE

F-ESR.12
6.02.02
The ESR Lattice shall contain provisions for correctors such as skew quadrupoles, Dipole correctors etc. as needed.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

G-ESR.05
6.02.02
The ESR electron beam shall orbit in the clockwise direction as seen from above.
02/09/2026
Approved
FALSE

F-ESR-ARC.01
6.02.02
The ESR lattice arc magnet structure shall contain an array of regular FODO cells
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.02
6.02.02
The ESR lattice arc magnet structure shall consists of a quadrupole, a sextupole, a bending section, and a dipole corrector in each arc half-cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.03
6.02.02
The ESR lattice arc magnet structure shall accommodate slightly different average arc radii in the individual arcs by adjusting the drift spaces between individual elements in each FODO cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.04
6.02.02
The ESR beamline bending sections shall contain three individual dipole magnets, referred to as “super-bends”.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.01
6.02.02
The ESR magnets shall meet the requirements defined by the physics lattice.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.02
6.02.02
The ESR magnets shall have the required field quality to meet the operational needs.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.03
6.02.02.03.05.01
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.03
6.02.02
The “super-bends” in the ESR ARC sections shall consist of two long dipoles on either end of a short dipole.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.04
6.02.02
The good field region of the ESR dipoles shall extend over a horizontal range of at least 4 centimeters in the radial direction, for all operational beam energies from 5 to 18 GeV. This will take into account the orbit changes due to the reverse bends.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.09
6.02.02
All dipoles in the ESR, including those in IRs 6 and 8, shall be connected in series to a single main power supply.
02/09/2026
Approved
FALSE

F-ESR-MAG.07
6.02.02
The aperture of all ESR magnets shall be large enough to accommodate the ESR vacuum chamber.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.05
6.02.02.03.04.01
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 52 and 150 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.09
6.02.02.03.04.01
The magnet pole tip radius shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 150 and 52 mm.
02/09/2026
Approved
FALSE

F-ESR-PS.01
6.02.02
The ESR magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

G-ESR.06
6.02.02
The ESR Lattice shall be tilted with respect to the plane of the HSR along the chord between IP6 and IP8 by 200 microradians to avoid interference with other components and such that the ESR is above the HSR at IP12.
02/09/2026
Approved
FALSE

G-ESR.07
6.02.02
The ESR shall have a circumference such that the revolution frequency of the stored electron beam matches the revolution frequency of 133 GeV protons stored in the HSR, with the proton beam orbit centered in the HSR beampipe.
02/09/2026
Approved
FALSE

F-ESR-ARC.01
6.02.02
The ESR lattice arc magnet structure shall contain an array of regular FODO cells
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.02
6.02.02
The ESR lattice arc magnet structure shall consists of a quadrupole, a sextupole, a bending section, and a dipole corrector in each arc half-cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.03
6.02.02
The ESR lattice arc magnet structure shall accommodate slightly different average arc radii in the individual arcs by adjusting the drift spaces between individual elements in each FODO cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.04
6.02.02
The ESR beamline bending sections shall contain three individual dipole magnets, referred to as “super-bends”.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.01
6.02.02
The ESR magnets shall meet the requirements defined by the physics lattice.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.02
6.02.02
The ESR magnets shall have the required field quality to meet the operational needs.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.03
6.02.02.03.05.01
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.03
6.02.02
The “super-bends” in the ESR ARC sections shall consist of two long dipoles on either end of a short dipole.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.04
6.02.02
The good field region of the ESR dipoles shall extend over a horizontal range of at least 4 centimeters in the radial direction, for all operational beam energies from 5 to 18 GeV. This will take into account the orbit changes due to the reverse bends.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.09
6.02.02
All dipoles in the ESR, including those in IRs 6 and 8, shall be connected in series to a single main power supply.
02/09/2026
Approved
FALSE

F-ESR-MAG.07
6.02.02
The aperture of all ESR magnets shall be large enough to accommodate the ESR vacuum chamber.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.05
6.02.02.03.04.01
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 52 and 150 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.09
6.02.02.03.04.01
The magnet pole tip radius shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 150 and 52 mm.
02/09/2026
Approved
FALSE

F-ESR-PS.01
6.02.02
The ESR magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

G-ESR.08
6.02.02
The ESR shall use the “inner” aisle (closest to the inner tunnel wall) of the tunnel from IR4 to IR6 and from IR8 to IR12, and the “outer” aisle (closest to the outer tunnel wall) from IR12 to IR4 and IR6 to IR8.
02/09/2026
Approved
FALSE

F-ESR-ARC.01
6.02.02
The ESR lattice arc magnet structure shall contain an array of regular FODO cells
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.02
6.02.02
The ESR lattice arc magnet structure shall consists of a quadrupole, a sextupole, a bending section, and a dipole corrector in each arc half-cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.03
6.02.02
The ESR lattice arc magnet structure shall accommodate slightly different average arc radii in the individual arcs by adjusting the drift spaces between individual elements in each FODO cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.04
6.02.02
The ESR beamline bending sections shall contain three individual dipole magnets, referred to as “super-bends”.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.10
6.02.02
The ESR Sextupole wiring scheme shall create the required sextupole families needed per arc to maximize dynamic aperture at the 90 degrees per FODO cell phase advance at 18 GeV.
02/09/2026
Approved
FALSE

F-ESR-MAG.01
6.02.02
The ESR magnets shall meet the requirements defined by the physics lattice.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.02
6.02.02
The ESR magnets shall have the required field quality to meet the operational needs.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.03
6.02.02.03.05.01
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.03
6.02.02
The “super-bends” in the ESR ARC sections shall consist of two long dipoles on either end of a short dipole.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.04
6.02.02
The good field region of the ESR dipoles shall extend over a horizontal range of at least 4 centimeters in the radial direction, for all operational beam energies from 5 to 18 GeV. This will take into account the orbit changes due to the reverse bends.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.09
6.02.02
All dipoles in the ESR, including those in IRs 6 and 8, shall be connected in series to a single main power supply.
02/09/2026
Approved
FALSE

F-ESR-MAG.07
6.02.02
The aperture of all ESR magnets shall be large enough to accommodate the ESR vacuum chamber.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.05
6.02.02.03.04.01
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 52 and 150 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.09
6.02.02.03.04.01
The magnet pole tip radius shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 150 and 52 mm.
02/09/2026
Approved
FALSE

F-ESR-PS.01
6.02.02
The ESR magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

G-ESR.09
6.02.02
The ESR shall support collisions with the HSR in IR6, to accommodate colliding beam interaction regions and detectors for nuclear physics experiments.
02/09/2026
Approved
FALSE

F-ESR-MAG.10
6.02.02
The ESR main arc quadrupoles shall be powered to accommodate the Lattice requirements having the appropriate number of circuits to power the focusing and defocusing quadrupoles in each sextant of the ESR.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

F-ESR-MAG.06
6.02.02
The maximum integrated field strength of the ESR FODO sextupoles needs to be sufficient to provide chromatic correction at all energies from 5 to 18 GeV with two low-beta interaction regions.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

F-ESR.03
6.02.02
The ESR shall support two low-beta insertions (colliding beam interaction regions) at IRs 06 and 08.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-VAC.10
6.02.02.06
The maximum beam excursion orbit shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

G-ESR.10
6.02.02
The ESR beam dynamics shall incorporate the need for collision points with the HSR in IR6 and IR8.
02/09/2026
Approved
FALSE

G-ESR.11
6.02.02
The ESR shall have provisions made at IR8 to accommodate a future 2nd colliding beam interaction region with low-beta section, spin rotators and crab cavities.
02/09/2026
Approved
FALSE

F-ESR-MAG.10
6.02.02
The ESR main arc quadrupoles shall be powered to accommodate the Lattice requirements having the appropriate number of circuits to power the focusing and defocusing quadrupoles in each sextant of the ESR.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

F-ESR-MAG.06
6.02.02
The maximum integrated field strength of the ESR FODO sextupoles needs to be sufficient to provide chromatic correction at all energies from 5 to 18 GeV with two low-beta interaction regions.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

F-ESR.03
6.02.02
The ESR shall support two low-beta insertions (colliding beam interaction regions) at IRs 06 and 08.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-VAC.10
6.02.02.06
The maximum beam excursion orbit shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

G-ESR.12
6.02.02
The ESR shall have provisions made at IR12 to accommodate beam polarimetry measurements, damper systems, special instrumentation.
02/09/2026
Approved
FALSE

G-ESR.13
6.02.02
The ESR shall have provisions made to accommodate electron beam injection and extraction elements in IR4.
02/09/2026
Approved
FALSE

G-ESR.14
6.04.04.03.01.02
The ESR fast abort system shall be located in the IR2 straight section.
02/09/2026
Approved
FALSE

G-ESR.15
6.02.02
The ESR shall be designed to minimize unscheduled downtime, maintenance time and repair time to achieve EIC operational availability.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.01
6.04.04.03.01.02
The ESR shall contain an Abort system to dump the beam.
02/09/2026
Approved
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.01
6.04.04.03.01.02
The diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.02
6.04.04.03.01.02
The length shall be 2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.03
6.04.04.03.01.02
The materials shall be C / Al / Cu
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.04
6.04.04.03.01.02
The energy deposited during abort shall be 320 kJ
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.05
6.04.04.03.01.02
The frequency of thermal cycle shall be 1 hour
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.06
6.04.04.03.01.02
The window thickness shall be tbd mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.07
6.04.04.03.01.02
The window material shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.01
6.04.04.03.01.02
The Length shall be 50 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.02
6.04.04.03.01.02
The Internal diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.03
6.04.04.03.01.02
The Temperature sensors shall be yes
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.04
6.04.04.03.01.02
The BPMs shall be 4
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.05
6.04.04.03.01.02
The Correctors shall be 4
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.06
6.04.04.03.01.02
The Corrector PS shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.07
6.04.04.03.01.02
The power supply accuracy shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.08
6.04.04.03.01.02
The Cooling / pumping shall be yes
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.01
6.04.04.03.01.02
The deflection shall be 2 mrad
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.02
6.04.04.03.01.02
The length shall be 1.2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.03
6.04.04.03.01.02
The power supply shall be 1600 A
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.04
6.04.04.03.01.02
The power supply accuracy shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.05
6.04.04.03.01.02
The Y-chamber aperture shall be 36 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.06
6.04.04.03.01.02
May need to add additional window requirements for other leg of Lambertson magnet TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.01
6.04.04.03.01.02
The gradient shall be 17 T/m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.02
6.04.04.03.01.02
The power supply shall be 1600 A
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.03
6.04.04.03.01.02
The power supply accuracy shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.04
6.04.04.03.01.02
The length shall be 70 cm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.05
6.04.04.03.01.02
The aperture radius shall be 50 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.01
6.04.04.03.01.02
The number of kickers shall be 6
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.02
6.04.04.03.01.02
The Rise time shall be 900 ns
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.03
6.04.04.03.01.02
The Fall time shall be NA sec
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.04
6.04.04.03.01.02
The flat top time shall be 13 us
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.05
6.04.04.03.01.02
The waveshape shall be trap
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.06
6.04.04.03.01.02
The painting shall be vertical
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.07
6.04.04.03.01.02
The maximum field shall be 0.12 T
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.08
6.04.04.03.01.02
The total deflection shall be 16 mrad
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.09
6.04.04.03.01.02
The maximum current shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.10
6.04.04.03.01.02
The maximum voltage shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.11
6.04.04.03.01.02
The inductance with cable shall be TBD (uH)
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.12
6.04.04.03.01.02
The Max rep rate shall be 100 kV/pC
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.13
6.04.04.03.01.02
The flat top repeatability shall be NA Hz
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.15
6.04.04.03.01.02
The beam abort kicker shall be tbd %
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.14
6.04.04.03.01.02
The flatness of flat top/pulse form shall be 1 %
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.16
6.04.04.03.01.02
The cooling type shall be w (W,A)
02/09/2026
In Process
FALSE

F-ESR-MPS-ABORT.02
6.04.04.03.01.02
The ESR Abort system shall contain a beam dump to safely absorb the energy of the stored beam in a controlled fashion.
02/09/2026
Approved
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.01
6.04.04.03.01.02
The diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.02
6.04.04.03.01.02
The length shall be 2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.03
6.04.04.03.01.02
The materials shall be C / Al / Cu
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.04
6.04.04.03.01.02
The energy deposited during abort shall be 320 kJ
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.06
6.04.04.03.01.02
The window thickness shall be tbd mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.05
6.04.04.03.01.02
The frequency of thermal cycle shall be 1 hour
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.07
6.04.04.03.01.02
The window material shall be tbd
02/09/2026
In Process
FALSE

F-ESR-MPS-COLLIMATION.01
6.04.04.03.01.01
The ESR shall have a collimation system capable of ensuring a sufficiently low background at the detector.
02/09/2026
Approved
FALSE

P-ESR-COLL-ABS.01
6.04.04.03.01.01
The ESR Injection absorber shall be placed in Sector 12 adjacent to the Momentum collimator.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.02
6.04.04.03.01.01
The ESR Injection absorber shall be vertical.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.03
6.04.04.03.01.01
The vertical aperture shall be 17.5 mm half gap. +/- 17.5 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.04
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.05
6.04.04.03.01.01
The ESR injection absorber has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.11
6.04.04.03.01.01
The beam energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.12
6.04.04.03.01.01
The thermal duty cycle shall be 2 Hz. 2 Hz
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.1
6.04.04.03.01.01
The ESR detector absorbers shall be placed at Sector 5.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.2
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.3
6.04.04.03.01.01
The horizontal aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.4
6.04.04.03.01.01
The vertical aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.5
6.04.04.03.01.01
The horizontal aperture shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.6
6.04.04.03.01.01
The detector absorbers have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.7
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.8
6.04.04.03.01.01
The beam energy deposition shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.9
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be tbd kW. tbd kW
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.14
6.04.04.03.01.01
The jaw tip length shall be 21 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.15
6.04.04.03.01.01
The jaw material shall be Cu
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.16
6.04.04.03.01.01
The total length shall be 560-720 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.01
6.04.04.03.01.01
The ESR momentum collimators shall be placed in Sector 12 adjacent to the Injection absorber.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.02
6.04.04.03.01.01
The ESR momentum collimator shall be horizontal.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.03
6.04.04.03.01.01
The horizontal aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.04
6.04.04.03.01.01
The horizontal aperture shall be range shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.05
6.04.04.03.01.01
The ESR momentum collimator has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.01
6.04.04.03.01.01
The ESR primary vertical collimator shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.02
6.04.04.03.01.01
The ESR primary horizontal collimator shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.03
6.04.04.03.01.01
The vertical aperture shall range from 5 to 10 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.04
6.04.04.03.01.01
The horizontal aperture shall range from 8 to 23 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.05
6.04.04.03.01.01
The ESR primary collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W on the tip of the jaw. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch) on the tip of the jaw. 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.01
6.04.04.03.01.01
The ESR secondary vertical collimators shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.02
6.04.04.03.01.01
The ESR secondary horizontal collimators shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.03
6.04.04.03.01.01
The vertical aperture shall range from 6 to 11 mm (half gap, +/- tbd). tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.04
6.04.04.03.01.01
The horizontal aperture shall range from 9 to 25 mm (half gap, +/- tbd).
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.05
6.04.04.03.01.01
The ESR collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

F-ESR-MPS-COLLIMATION.02
6.04.04.03.01.01
The ESR shall have a collimation system capable protecting all machine elements in case of failure.
02/09/2026
Approved
FALSE

P-ESR-COLL-ABS.01
6.04.04.03.01.01
The ESR Injection absorber shall be placed in Sector 12 adjacent to the Momentum collimator.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.02
6.04.04.03.01.01
The ESR Injection absorber shall be vertical.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.03
6.04.04.03.01.01
The vertical aperture shall be 17.5 mm half gap. +/- 17.5 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.04
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.05
6.04.04.03.01.01
The ESR injection absorber has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.11
6.04.04.03.01.01
The beam energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.12
6.04.04.03.01.01
The thermal duty cycle shall be 2 Hz. 2 Hz
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.1
6.04.04.03.01.01
The ESR detector absorbers shall be placed at Sector 5.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.2
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.3
6.04.04.03.01.01
The horizontal aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.4
6.04.04.03.01.01
The vertical aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.5
6.04.04.03.01.01
The horizontal aperture shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.6
6.04.04.03.01.01
The detector absorbers have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.7
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.8
6.04.04.03.01.01
The beam energy deposition shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.9
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be tbd kW. tbd kW
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.14
6.04.04.03.01.01
The jaw tip length shall be 21 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.15
6.04.04.03.01.01
The jaw material shall be Cu
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.16
6.04.04.03.01.01
The total length shall be 560-720 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.01
6.04.04.03.01.01
The ESR momentum collimators shall be placed in Sector 12 adjacent to the Injection absorber.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.02
6.04.04.03.01.01
The ESR momentum collimator shall be horizontal.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.03
6.04.04.03.01.01
The horizontal aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.04
6.04.04.03.01.01
The horizontal aperture shall be range shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.05
6.04.04.03.01.01
The ESR momentum collimator has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.01
6.04.04.03.01.01
The ESR primary vertical collimator shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.02
6.04.04.03.01.01
The ESR primary horizontal collimator shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.03
6.04.04.03.01.01
The vertical aperture shall range from 5 to 10 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.04
6.04.04.03.01.01
The horizontal aperture shall range from 8 to 23 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.05
6.04.04.03.01.01
The ESR primary collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W on the tip of the jaw. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch) on the tip of the jaw. 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.01
6.04.04.03.01.01
The ESR secondary vertical collimators shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.02
6.04.04.03.01.01
The ESR secondary horizontal collimators shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.03
6.04.04.03.01.01
The vertical aperture shall range from 6 to 11 mm (half gap, +/- tbd). tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.04
6.04.04.03.01.01
The horizontal aperture shall range from 9 to 25 mm (half gap, +/- tbd).
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.05
6.04.04.03.01.01
The ESR collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

F-ESR.05
6.02.02
The ESR shall reach an availability consistent with the overall availability of the entire EIC as specified in the GRD. [Document#:EIC-SEG-RSI-010]
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.06
6.04.03.01.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +15 (C) to +50 (C).
07/29/2025
Approved
FALSE

P-ESR-MAG-QN:80.09
6.02.02.03.04.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.10
6.02.02.03.04.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.06
6.02.02.03.05.01
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-TH:20.09
6.02.02.03.05.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.10
6.02.02.03.05.01
The magnet shall be designed with components capable to withstand a lifetime radiation dose of 1 MGy.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.09
6.02.02.03.05.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.06
6.02.02.03.05.01
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-TV:20.10
6.02.02.03.05.01
The magnet shall be designed with components capable to withstand a lifetime radiation dose of 1 MGy.
02/09/2026
Approved
FALSE

G-ESR.16
6.02.02
All ESR components and systems shall be designed and installed in line with all relevant regulatory codes and in full compliance with BNL SBMS.
02/09/2026
Approved
FALSE

G-ESR.17
6.02.04.02
The ESR shall have provisions made to accommodate a control system which can operate the ESR consistent will the overall control of the EIC and other EIC systems and to ensure the ESR meets all the Physics requirements needed to deliver the physics goals of the EIC.
02/09/2026
Approved
FALSE

F-ESR-CONT.01
6.02.04.02
The ESR control system shall facilitate all ESR global control requirements.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-CONT.02
6.02.04.02
The ESR control system shall facilitate all network, relational database and data archiving required.
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-RF.06.02
6.02.02
The ESR RF Systems within the tunnel shall operate within its yearly radiation exposure budget.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

F-ESR-CONT.03
6.02.04.02
The control system shall facilitate all machine protection systems required
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-CONT.04
6.02.04.02
The ESR control system shall facilitate all EIC machine timing required.
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-CONT.05
6.02.04.02
The ESR control system shall facilitate fast orbit feedback integration systems as required.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.03
6.02.04.02
Placeholder for fast orbit feedback requirements
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.04
6.02.04.02
Placeholder for fast orbit feedback requirements
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.05
6.02.04.02
Placeholder for fast orbit feedback requirements
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-CONT.06
6.02.04.02
The ESR control system shall facilitate all physics application support required.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

F-ESR-INST.01
6.02.02
The ESR instrumentation system shall include dual-plane Beam Position Monitors (BPMs) adjacent to each vertically focusing quadrupole. Provisions shall be made in the vacuum chamber design to install additional dual-plane BPMs at the horizontally focusing quadrupoles, if needed.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.01
6.02.02.05.01.02
The ESR beam position monitor pick-up shall provide dual plane (horizontal and vertical) beam positional measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.10
6.02.02.05.01.02
The roll angle error of the ESR BPM pickup, given as the horizontal measurement plane defined by the BPM fiducials witrh respect to. the horizontal plane of the ESR ring shall be less than +/- 20 (mrad).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05
6.02.02.05.01.02
The ESR BPM system shall fulfill resolution and accuracy requirements over the following two defined transverse beam position ranges with respect vacuum chamber center, referenced to the mechanical fiducials on the BPM pickups.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.13
6.02.02.05.01.02
The beam position monitor pick-up assembly shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

F-ESR-INST.02
6.02.02
The ESR BPMs shall have turn-by-turn orbit measurement capability based on a single, remotely selectable bunch out of the fully filled bunch train to enable injection optimization.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-ELEC.01
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following capabilities defined for the low intensity pilot injection energies and high intensity collision energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following time resolutions for data refresh defined for the beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.03
6.02.02.05.01.01
The ESR BPM Electronics shall have the following time resolutions for data logging defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04
6.02.02.05.01.01
The ESR BPM Electronics shall have the following measurement resolutions defined for beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.05
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.06
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate in an ambient temperature degree from X (C) to X (C).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-PU.01
6.02.02.05.01.02
The ESR beam position monitor pick-up shall provide dual plane (horizontal and vertical) beam positional measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.10
6.02.02.05.01.02
The roll angle error of the ESR BPM pickup, given as the horizontal measurement plane defined by the BPM fiducials witrh respect to. the horizontal plane of the ESR ring shall be less than +/- 20 (mrad).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05
6.02.02.05.01.02
The ESR BPM system shall fulfill resolution and accuracy requirements over the following two defined transverse beam position ranges with respect vacuum chamber center, referenced to the mechanical fiducials on the BPM pickups.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.13
6.02.02.05.01.02
The beam position monitor pick-up assembly shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

F-ESR-INST.03
6.02.02
The ESR instrumentation system shall include a beam current monitor to measure average beam current.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.01
6.02.02.05.03
The ESR DC Current Transformer shall have the ability to measure the average beam current over a range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.02
6.02.02.05.03
The ESR DC Current Transformer shall provide an average current measurement with a resolution of less than 5 (uA /√Hz).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.03
6.02.02.05.03
The ESR DC Current Transformer measurement drift tolerance shall be less than 10 (uA) over 1 (hr).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.04
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy of better than +/- 1 (%) at 250 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.05
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy between the range of 250 (mA) to 2.5 (A) at +/- 0.5 (%).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.07
6.02.02.05.03
The ESR DC Current Transformer system shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.10
6.02.02.05.03
The ESR DC Current Transformer Calibration system shall be capable of providing an equivalent ESR DC current over the full operating range within 0.25% over the beam current range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.09
6.02.02.05.03
The ESR DC Current Transformer system shall have a remote controlled self calibration system
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.11
6.02.02.05.03
The ESR DC Current Transformer measured average current shall be archived at a rate of 1 Hz
02/09/2026
Approved
FALSE

F-ESR-INST.04
6.02.02
The ESR instrumentation system shall include a system to measure individual bunch charges and bunch pattern.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.01
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring bunch patterns ranging from a single bunch, to a filled ring with 1,160 bunches.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.02
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring witness bunch for 1/e for a fixed gain over the beam lifetime.
02/09/2026
Approved
FALSE

F-ESR-INST.05
6.02.02
The ESR instrumentation system shall include a system to measure transverse beam profiles.
02/09/2026
Approved
FALSE

P-ESR-INST-TRANSFB.02
6.02.02.05.05.01
The transverse feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSFB.01
6.02.02.05.05.01
Placeholder, Input needed TBD
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSFB.03
6.02.02.05.05.01
Placeholder, Input needed TBD
02/09/2026
In Process
FALSE

F-ESR-INST.06
6.02.02
The ESR instrumentation system shall include a system to measure longitudinal beam profiles.
02/09/2026
Approved
FALSE

P-ESR-INST-LONGIFB.01
6.02.02.05.05.02
The requirements for longitudinal feedback are ??? TBD
02/09/2026
In Process
FALSE

P-ESR-INST-LONGIFB.02
6.02.02.05.05.02
The Longitudinal feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

F-ESR-INST.07
6.02.02
The ESR longitudinal bunch profile monitor needs turn-by-turn capability based on a single bunch in the fully filled bunch train to allow timing and energy adjustment for injection optimization.
02/09/2026
Approved
FALSE

P-ESR-INST-LONGIFB.01
6.02.02.05.05.02
The requirements for longitudinal feedback are ??? TBD
02/09/2026
In Process
FALSE

P-ESR-INST-LONGIFB.02
6.02.02.05.05.02
The Longitudinal feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

F-ESR-INST.08
6.02.02
The ESR instrumentation system shall include system to measure H & V betatron tunes.
02/09/2026
Approved
FALSE

P-ESR-INST-TMK.01
6.02.02.05.03
Stripline kickers (H & V) shall be used to excite the beam so tunes can be measured using turn-by-turn BPM data.
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.02
6.02.02.05.03
The magnitude of the kick required for the horizontal kicker shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.03
6.02.02.05.03
The magnitude of the kick required for the vertical kicker shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.05
6.02.02.05.03
The location of the tune meter kicker striplines in the ESR shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.04
6.02.02.05.03
The kicker waveform (risetime and shape) requirements shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.06
6.02.02.05.03
The impedance of the kicker beamline device shall be approved by beam Physics.
02/09/2026
In Process
FALSE

F-ESR-INST.09
6.02.02
The ESR instrumentation system shall facilitate all required feedback systems (slow transverse, longitudinal and transverse bunch-by-bunch)
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.02
6.02.04.02
The slow orbit feedback correction output rate shall be 10 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.01
6.02.04.02
The slow orbit feedback BPM data averaging period shall be tbd -
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSSLFB.01
6.02.02.05.05.01
The transverse slow feedback system bandwidth shall bs 10 Hz
02/09/2026
In Process
FALSE

F-ESR-INST.10
6.02.02
The ESR instrumentation system shall include beam loss monitor system with detectors located only at select regions of the ESR.
02/09/2026
Approved
FALSE

P-ESR-INST-BLM.01
6.02.02.05.02
BLM shall be needed to needed to protect sensitive equipment.
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.02
6.02.02.05.02
The number of BLM installed in the ESR shall be TBD ea
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.03
6.02.02.05.02
BLM shall be installed at the following locations in the ESR TBD
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.04
6.02.02.05.02
The sensitivity of the BLM detectors shall be TBD units?
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.05
6.02.02.05.02
Where possible existing RHIC BLM's can be relocated to identify ESR & HSR losses
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.06
6.02.02.05.02
The response time from loss detection to abort shall be TBD us
02/09/2026
In Process
FALSE

F-ESR-RF.06.05
6.02.02
The ESR RF System shall be designed to minimize unscheduled downtime, maintenance time and repair time to achieve ESR operational availability.
02/09/2026
Approved
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.11
6.08.04.01
The minimum cooldown rate of the SRF cavity between 300K to 150K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.12
6.08.04.01
The minimum cooldown rate of the SRF cavity between 150K to 50K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.13
6.08.04.01
The minimum cooldown rate of the SRF cavity between 50K to 4.5K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.14
6.08.04.01
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.15
6.08.04.01
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.16
6.08.04.01
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.17
6.08.04.01
The SRF Cryomodule shall achieve a full warm-up cycle from 4K to 295K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.01
6.08.04.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.02
6.08.04.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.03
6.08.04.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.04
6.08.04.01
The manufactured SRF Cryomodule Cavity shall produce no field emission at 4 MV.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.08
6.08.04.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.07
6.08.04.01
The active SRF cavity tuning mechanism components (motor/gearbox/drive mechanism) shall be replaceable and maintainable in-situ.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.02
6.08.04.01
The minimum SRF Cavity slow tuner tuning rate shall be 800 Hz/s.
05/16/2025
Approved
FALSE

G-ESR.18
6.02.04.04
The ESR shall have provisions made to accommodate a cryogenic system to cool and operate all elements which need cryogenic cooling .
02/09/2026
Approved
FALSE

G-ESR.19
6.02.02
The ESR shall have provisions made to accommodate a RF system capable of operating at parameters defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

ESR-PPD : EZSR Pulse Power Device System (WBS 6.03.03.05)

ESR-PPD-INJ_EXT_PULSE_STRIPLINE_KICK : EIS RCS Injection/Extraction Pulse Power Strip-line Kicker System (WBS 6.03.03.05.06)

ESR-PPD-INJ_EXT_PULSE_KICK : EIS RCS Injection/Extraction Pulsed Bump IM&HW System (WBS 6.03.03.05.07)

ESR-PPD-INJ_EXT_PULSE_SEPTUM : EIS RCS Injection/Extraction Pulsed Septum System (WBS 6.03.03.05.08)

ESR-MAG : ESR Magnet (WBS 6.04.02/6.04.03)

ESR-MAG EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-MAG.01
6.02.02
The ESR magnets shall meet the requirements defined by the physics lattice.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.02
6.02.02
The ESR magnets shall have the required field quality to meet the operational needs.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.03
6.02.02.03.05.01
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-MAG.03
6.02.02
The “super-bends” in the ESR ARC sections shall consist of two long dipoles on either end of a short dipole.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.04
6.02.02
The good field region of the ESR dipoles shall extend over a horizontal range of at least 4 centimeters in the radial direction, for all operational beam energies from 5 to 18 GeV. This will take into account the orbit changes due to the reverse bends.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.05
6.02.02
All ESR quadrupoles shall be designed to facilitate beam based alignment.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

F-ESR-MAG.06
6.02.02
The maximum integrated field strength of the ESR FODO sextupoles needs to be sufficient to provide chromatic correction at all energies from 5 to 18 GeV with two low-beta interaction regions.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

F-ESR-MAG.07
6.02.02
The aperture of all ESR magnets shall be large enough to accommodate the ESR vacuum chamber.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.05
6.02.02.03.04.01
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 52 and 150 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.09
6.02.02.03.04.01
The magnet pole tip radius shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 150 and 52 mm.
02/09/2026
Approved
FALSE

F-ESR-MAG.08
6.02.02
The ESR Shall have a conventional orbit corrector scheme, with single-plane correctors located at the respective quadrupoles. The strength of these correctors needs to be chosen to correct for any source of orbit distortion and should have enough margin for beam based diagnostic purposes, Harmonic Spin bumps and emittance generating bumps.
02/09/2026
Approved
FALSE

F-ESR-MAG.09
6.02.02
All dipoles in the ESR, including those in IRs 6 and 8, shall be connected in series to a single main power supply.
02/09/2026
Approved
FALSE

F-ESR-MAG.10
6.02.02
The ESR main arc quadrupoles shall be powered to accommodate the Lattice requirements having the appropriate number of circuits to power the focusing and defocusing quadrupoles in each sextant of the ESR.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

F-ESR-MAG.11
6.02.02
The ESR quadrupoles in the straight sections IR02, IR04, IR10 and IR12 and in the transition from the arc to the straight section structure shall be wired to provide the optimized betatron phase advance across each straight section, as required for dynamic aperture optimization.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-MAG.12
6.02.02
The ESR quadrupoles shall have provisions to vary individual strengths by approximately 1% for beam-based alignment purposes.
02/09/2026
Approved
FALSE

F-ESR-MAG.13
6.02.02
The ESR sextupole power supply scheme shall be laid out such that the sextupole family structure can be configured for both the 60 and the 90 degree lattice along with a small number of individually powered sextupoles in the transition regions between arcs and straight sections with minimal effort, cost and minimizing any risk of error.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-TD:273 : ESR Dipole Magnet (D13) (WBS 6.04.02.01)

P-ESR-MAG-TD:273.01.02-1
6.02.02.03.01.01
nan
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03-1
6.02.02.03.01.01
nan
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11
6.02.02.03.01.01
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01-1
6.02.02.03.01.01
nan
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03
6.02.02.03.01.01
The magnet shall be measured using the following multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints:
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01-1
6.02.02.03.01.01
nan
02/09/2026
Approved
FALSE

R-ESR-MAG-TD:273.01.01
6.02.02.03.01
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) with isolation valves in the tunnel to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.01.02
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the magnet to the girder for Low Conductivity Water (LCW).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.01.03
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the tunnel header(s) to the girder for Low Conductivity Water LCW).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.01.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for piping installation (or hosing) between the Low Conductivity Water (LCW) infrastructure and the magnets by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.01
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.02
6.02.02.03.01
The Power Supply Group shall purchase the cables that go from the power supply to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.03
6.02.02.03.01
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.04
6.02.02.03.01
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet and power supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.05
6.02.02.03.01
The Power Supply Group shall make connections of the trim coils to the chassis cables at the magnet and the power supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.06
6.02.02.03.01
The Magnet Group shall provide a terminal block to facilitate installation of the main winding magnet power cables.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.07
6.02.02.03.01
The Magnet Group shall provide trim coils.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.08
6.02.02.03.01
The Magnet Group shall provide several current taps to facilitate running at different operational modes.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.02.09
6.02.02.03.01
The Power Supply Group shall make connections of the Beam Based Alignment shunt resistor/switch chasssis cables at the magnet and PS ends
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.03.01
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.03.02
6.02.02.03.01
The Power Supply Group shall procure the cables that go from the thermal switch on the magnet to the Power Supply
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.03.03
6.02.02.03.01
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.03.04
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s)
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.03.05
6.02.02.03.01
The Magnet Group shall provide the terminal block to facilitate installation of the connection for thermal protection
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.04.01
6.02.02.03.01
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.04.02
6.02.02.03.01
The Magnet Group shall procure the girders for the Accelerator Installation Group to install.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.04.03
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the magnets on the girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.05.01
6.02.02.03.01
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.05.02
6.02.02.03.01
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the ESR beamline which satisfies the Magnet Group design.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.05.03
6.02.02.03.01
The Magnet Group will provide supports for beam pipes.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.05.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.06.01
6.02.02.03.01
The Mechanical Design Group shall provide the volume within the tunnel required by the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:273.06.02
6.02.02.03.01
The ESR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
Not Applicable
FALSE

ESR-MAG-TD:273 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-TD:380 : ESR Spin Rotator Dipole Magnet (DROT) (WBS 6.04.02.01)

P-ESR-MAG-TD:380.01.01
6.02.02.03.01.03
The magnet shall be a single function dipole with a vertical field.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.01.02
6.02.02.03.01.03
The magnet shall require trim coils capable of trimming the field within +/- TBD (%) of the Peak field.
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.01.03
6.02.02.03.01.03
The magnet shall require current taps for operation TBD ( Y or N)
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.01.05
6.02.02.03.01.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.01.06
6.02.02.03.01.03
The physical magnet length shall be <3.8 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.01.07
6.02.02.03.01.03
The magnet model length shall be 3.8 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.01.10
6.02.02.03.01.03
The magnet bore gap and Width shall be 52 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-TD:380.01.11
6.02.02.03.01.03
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.01.11.01
6.02.02.03.01.03
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.01.11.02
6.02.02.03.01.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.02.01
6.02.02.03.01.03
The magnet integrated dipole field (B) shall be 1.2 T.m.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-TD:380.02.04
6.02.02.03.01.03
The magnet good field aperture dAx required shall be 32.59 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.02.05
6.02.02.03.01.03
The magnet good field aperture dAy required shall be 11.46 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.02.06
6.02.02.03.01.03
The magnet to magnet field variability between magnets shall be 1 %.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.02.07
6.02.02.03.01.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.03.01
6.02.02.03.01.03
The field shall be measured at two locations as follows: Harmonic Measurements region 1; Rref1=TBD mm centered at (-TBD,TBD) mm, Harmonic Measurements region 2; Rref2=TBD mm centered at (TBD,TBD) mm.
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.03.02
6.02.02.03.01.03
The reference field for the different measurements shall be: Measurement 1; Bref1=TBD (T) in Region TBD, Region TBD , Measurement 2; Bref2=TBD (T) in Region TBD, Region TBD.
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.03.03
6.02.02.03.01.03
The magnet bore field shall have a field homogeneity in region TBD, of better than dB/B <10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1 & 2.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.01
6.02.02.03.01.03
Region 1: b1 = 10000, Region 2: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.02
6.02.02.03.01.03
Region1: -4<b2<4, Region2: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.03
6.02.02.03.01.03
Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.04
6.02.02.03.01.03
Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.05
6.02.02.03.01.03
Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.06
6.02.02.03.01.03
Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.07
6.02.02.03.01.03
Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.08
6.02.02.03.01.03
Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.09
6.02.02.03.01.03
Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.10
6.02.02.03.01.03
Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.11
6.02.02.03.01.03
Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.12
6.02.02.03.01.03
Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.13
6.02.02.03.01.03
Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.14
6.02.02.03.01.03
Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.15
6.02.02.03.01.03
Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.03.03.16
6.02.02.03.01.03
Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.04
6.02.02.03.01.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.05
6.02.02.03.01.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.05.01
6.02.02.03.01.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:380.09
6.02.02.03.01.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:380.10
6.02.02.03.01.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

R-ESR-MAG-TD:380.01.01
6.02.02.03.01
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) with isolation valves in the tunnel to be utilized by the magnets.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.01.02
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the magnet to the girder for Low Conductivity Water (LCW).
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.01.03
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the tunnel header(s) to the girder for Low Conductivity Water LCW).
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.01.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for piping installation (or hosing) between the Low Conductivity Water (LCW) infrastructure and the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.01
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.02
6.02.02.03.01
The Power Supply Group shall purchase the cables that go from the power supply to the magnets.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.03
6.02.02.03.01
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.04
6.02.02.03.01
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet and power supply.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.05
6.02.02.03.01
The Power Supply Group shall make connections of the trim coils to the chassis cables at the magnet and the power supply.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.06
6.02.02.03.01
The Magnet Group shall provide a terminal block to facilitate installation of the main winding magnet power cables.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.07
6.02.02.03.01
The Magnet Group shall provide trim coils.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.08
6.02.02.03.01
The Magnet Group shall provide several current taps to facilitate running at different operational modes.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.02.09
6.02.02.03.01
The Power Supply Group shall make connections of the Beam Based Alignment shunt resistor/switch chasssis cables at the magnet and PS ends
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.03.01
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.03.02
6.02.02.03.01
The Power Supply Group shall procure the cables that go from the thermal switch on the magnet to the Power Supply
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.03.03
6.02.02.03.01
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.03.04
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s)
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.03.05
6.02.02.03.01
The Magnet Group shall provide the terminal block to facilitate installation of the connection for thermal protection
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.04.01
6.02.02.03.01
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.04.02
6.02.02.03.01
The Magnet Group shall procure the girders for the Accelerator Installation Group to install.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.04.03
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the magnets on the girders.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.05.01
6.02.02.03.01
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.05.02
6.02.02.03.01
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the ESR beamline which satisfies the Magnet Group design.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.05.03
6.02.02.03.01
The Magnet Group will provide supports for beam pipes.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.05.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.06.01
6.02.02.03.01
The Mechanical Design Group shall provide the volume within the tunnel required by the magnets and girders.
01/08/2026
In Process
FALSE

R-ESR-MAG-TD:380.06.02
6.02.02.03.01
The ESR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
In Process
FALSE

ESR-MAG-TD:550 : ESR Dipole Magnet (B2ER) (WBS 6.04.02.01)

P-ESR-MAG-TD:550.01.01
6.02.02.03.01.03
The magnet shall be a single function magnet with a vertical dipole field along the beam axis.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:550.01.05
6.02.02.03.01.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.01.06
6.02.02.03.01.03
The physical magnet length shall be <TBD m.
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.01.10
6.02.02.03.01.03
The magnet bore gap and Width shall be 48 mm.
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.01.11
6.02.02.03.01.03
The magnet shall be designed to fit within the following envelope:
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.01.11.01
6.02.02.03.01.03
Magnet installation volume tolerances TBD
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.01.11.02
6.02.02.03.01.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.02.01
6.02.02.03.01.03
The magnet integrated dipole field (B) shall be TBD T.m.
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.02.04
6.02.02.03.01.03
The magnet good field aperture dAx required shall be TBD mm.
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.02.05
6.02.02.03.01.03
The magnet good field aperture dAy required shall be TBD mm.
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.02.06
6.02.02.03.01.03
The magnet to magnet field variability between magnets shall be 5 %.
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.02.07
6.02.02.03.01.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.01
6.02.02.03.01.03
The harmonic reference radius at the design energy of 18 GeV shall be TBD (mm) .
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.02
6.02.02.03.01.03
The Field at the reference radius at the design energy of 18 GeV shall be TBD (T) .
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03
6.02.02.03.01.03
The magnet bore field shall require the following multipole content:
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.01
6.02.02.03.01.03
b1 = 10000 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.02
6.02.02.03.01.03
b2 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.03
6.02.02.03.01.03
b3 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.04
6.02.02.03.01.03
b4 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.05
6.02.02.03.01.03
b5 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.06
6.02.02.03.01.03
b6 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.07
6.02.02.03.01.03
b7 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.08
6.02.02.03.01.03
b8 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.09
6.02.02.03.01.03
b9 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.10
6.02.02.03.01.03
b10 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.11
6.02.02.03.01.03
b11 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.12
6.02.02.03.01.03
b12 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.13
6.02.02.03.01.03
b13 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.14
6.02.02.03.01.03
b14 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.15
6.02.02.03.01.03
b15 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.03.03.16
6.02.02.03.01.03
b16 < 100 (10^-4)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.04
6.02.02.03.01.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.05
6.02.02.03.01.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.05.01
6.02.02.03.01.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
On Hold
FALSE

P-ESR-MAG-TD:550.09
6.02.02.03.01.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:550.10
6.02.02.03.01.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

R-ESR-MAG-TD:550.01.01
6.02.02.03.01
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) with isolation valves in the tunnel to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.01.02
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the magnet to the girder for Low Conductivity Water (LCW).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.01.03
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the tunnel header(s) to the girder for Low Conductivity Water LCW).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.01.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for piping installation (or hosing) between the Low Conductivity Water (LCW) infrastructure and the magnets by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.01
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.02
6.02.02.03.01
The Power Supply Group shall purchase the cables that go from the power supply to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.03
6.02.02.03.01
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.04
6.02.02.03.01
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet and power supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.05
6.02.02.03.01
The Power Supply Group shall make connections of the trim coils to the chassis cables at the magnet and the power supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.06
6.02.02.03.01
The Magnet Group shall provide a terminal block to facilitate installation of the main winding magnet power cables.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.07
6.02.02.03.01
The Magnet Group shall provide trim coils.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.08
6.02.02.03.01
The Magnet Group shall provide several current taps to facilitate running at different operational modes.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.02.09
6.02.02.03.01
The Power Supply Group shall make connections of the Beam Based Alignment shunt resistor/switch chasssis cables at the magnet and PS ends
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.03.01
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.03.02
6.02.02.03.01
The Power Supply Group shall procure the cables that go from the thermal switch on the magnet to the Power Supply
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.03.03
6.02.02.03.01
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.03.04
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s)
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.03.05
6.02.02.03.01
The Magnet Group shall provide the terminal block to facilitate installation of the connection for thermal protection
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.04.01
6.02.02.03.01
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.04.02
6.02.02.03.01
The Magnet Group shall procure the girders for the Accelerator Installation Group to install.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.04.03
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the magnets on the girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.05.01
6.02.02.03.01
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.05.02
6.02.02.03.01
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the ESR beamline which satisfies the Magnet Group design.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.05.03
6.02.02.03.01
The Magnet Group will provide supports for beam pipes.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.05.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.06.01
6.02.02.03.01
The Mechanical Design Group shall provide the volume within the tunnel required by the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:550.06.02
6.02.02.03.01
The ESR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
Not Applicable
FALSE

ESR-MAG-TD:89 : ESR Dipole Magnet (D2) (WBS 6.04.02.01)

P-ESR-MAG-TD:89.01.02-1
6.02.02.03.01.02
nan
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03-1
6.02.02.03.01.02
nan
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11
6.02.02.03.01.02
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01-1
6.02.02.03.01.02
nan
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03
6.02.02.03.01.02
The magnet shall be measured using the following multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints:
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01-1
6.02.02.03.01.02
nan
02/09/2026
Approved
FALSE

R-ESR-MAG-TD:89.01.01
6.02.02.03.01
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) with isolation valves in the tunnel to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.01.02
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the magnet to the girder for Low Conductivity Water (LCW).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.01.03
6.02.02.03.01
The Magnet Group shall provide a design and materials to facilitate installation of the piping (or hose) and connections from the tunnel header(s) to the girder for Low Conductivity Water LCW).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.01.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for piping installation (or hosing) between the Low Conductivity Water (LCW) infrastructure and the magnets by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.01
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.02
6.02.02.03.01
The Power Supply Group shall purchase the cables that go from the power supply to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.03
6.02.02.03.01
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.04
6.02.02.03.01
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet and power supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.05
6.02.02.03.01
The Power Supply Group shall make connections of the trim coils to the chassis cables at the magnet and the power supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.06
6.02.02.03.01
The Magnet Group shall provide a terminal block to facilitate installation of the main winding magnet power cables.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.07
6.02.02.03.01
The Magnet Group shall provide trim coils.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.08
6.02.02.03.01
The Magnet Group shall provide several current taps to facilitate running at different operational modes.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.02.09
6.02.02.03.01
The Power Supply Group shall make connections of the Beam Based Alignment shunt resistor/switch chasssis cables at the magnet and PS ends
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.03.01
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.03.02
6.02.02.03.01
The Power Supply Group shall procure the cables that go from the thermal switch on the magnet to the Power Supply
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.03.03
6.02.02.03.01
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.03.04
6.02.02.03.01
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s)
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.03.05
6.02.02.03.01
The Magnet Group shall provide the terminal block to facilitate installation of the connection for thermal protection
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.04.01
6.02.02.03.01
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.04.02
6.02.02.03.01
The Magnet Group shall procure the girders for the Accelerator Installation Group to install.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.04.03
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the magnets on the girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.05.01
6.02.02.03.01
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.05.02
6.02.02.03.01
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the ESR beamline which satisfies the Magnet Group design.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.05.03
6.02.02.03.01
The Magnet Group will provide supports for beam pipes.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.05.04
6.02.02.03.01
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.06.01
6.02.02.03.01
The Mechanical Design Group shall provide the volume within the tunnel required by the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TD:89.06.02
6.02.02.03.01
The ESR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
Not Applicable
FALSE

ESR-MAG-TD:89 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-SX:24 : ESR Sextupole Magnet (SX) (WBS 6.04.02.02)

P-ESR-MAG-SX:24.01.01
6.01.02.02
The magnet shall be a single function sextupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.01.05
6.01.02.02
The magnet shall be designed to have a splitable pole toaccommodate the Vacuum beam pipe installation.
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.01.06
6.01.02.02
The physical magnet length shall be <0.32 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.01.07
6.01.02.02
The effective magnet length shall be 0.24 m
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.01.11.02
6.01.02.02
The magnet install center and install alignment must be within atranslational value of +/-150(um) and a rotational alignment valueof +/-0.5 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.02.02
6.01.02.02
The magnet integrated grad field G shall be 97.2 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.02.07
6.01.02.02
The magnetic field, center and alignment, within the magnet mustbe known to within a translational value of +/-50 (um) and arotational alignment value of +/-0.5 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03
6.01.02.02
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.01
6.01.02.02
The harmonic reference radius and current shall be 25 (mm) and 161 (A).
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.02
6.01.02.02
The Field at the reference radius and current shall be 405 (T/m^2).
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03
6.01.02.02
The magnet bore field shall require the following multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.03
6.01.02.02
b3 = 10000 a3 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.04
6.01.02.02
b4 = HV +/- 5.3 a4 = HV +/- 7.1
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.05
6.01.02.02
b5 = HV +/- 1.6 a5 = HV +/- 1.9
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.06
6.01.02.02
b6 = HV +/- 1.0 a6 = +/- 2.0
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.07
6.01.02.02
b7 = HV +/- 1.0 a7 = +/- 0.8
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.08
6.01.02.02
b8 = HV +/- 1.0 a8 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.09
6.01.02.02
b9 = HV +/- 1.0 a9 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.10
6.01.02.02
b10 = HV +/- 1.0 a10 = +/- 0.3
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.11
6.01.02.02
b11 = HV +/- 1.0 a11 = +/- 0.28
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.12
6.01.02.02
b12 = HV +/- 1.0 a12 = +/- 0.26
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.13
6.01.02.02
b13 = HV +/- 1.0 a13 = +/- 0.24
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.14
6.01.02.02
b14 = HV +/- 1.0 a14 = +/- 0.22
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.03.03.15
6.01.02.02
b15 = HV +/- 1.0 a15 = +/- 0.21
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.05.01
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.06
6.01.02.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-SX:24.09
6.01.02.02
The magnet design and verification process shall ensure the finalmagnet will meet the reliability needs of the EIC over it plannedoperational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-SX:24.10
6.01.02.02
The magnet shall be designed to operate reliably given thecumulative radiation dose of TBD Rads it will experience over thelifetime of the EIC of >20 Years.
02/09/2026
In Process
FALSE

ESR-MAG-SXT:57 : ESR Long Sextupole Magnet (SXL) (WBS 6.04.02.02)

P-ESR-MAG-SXT:57.01.01
6.02.02.03.02
The magnet shall be a single function sextupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.01.05
6.02.02.03.02
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.01.06
6.02.02.03.02
The maximum physical magnet length shall be 0.63 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.01.09
6.02.02.03.02
The magnet pole tip radius shall be 49 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.01.11
6.02.02.03.02
The magnet shall be designed to fit within the following envelope.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.01.11.01
6.02.02.03.02
The magnet maximum axial dimensions shall be X = 71.1 cm and Y = 92.3 cm.
02/09/2026
In Process
FALSE

P-ESR-MAG-SXT:57.01.11.02
6.02.02.03.02
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.02.02
6.02.02.03.02
The magnet integrated gradient field, G, shall be 230.9 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.02.06
6.02.02.03.02
The magnet-to-magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-SXT:57.02.07
6.02.02.03.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.01
6.02.02.03.02
The magnet reference radius and current shall be 25 mm and 161 A.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.02
6.02.02.03.02
The magnetic field at the reference radius and current shall be 405 T/m^2.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03
6.02.02.03.02
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.03
6.02.02.03.02
b3 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.04
6.02.02.03.02
-5.00 < b4 < 5.00 -7.00 < a4 < 7.00
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.05
6.02.02.03.02
-1.40 < b5 < 1.40, -1.70 < a5 < 1.70
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.06
6.02.02.03.02
-1.00 < b6 < 1.00, -1.00 < a6 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.07
6.02.02.03.02
-0.75 < b7 < 0.75, -0.40 < a7 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.08
6.02.02.03.02
-0.50 < b8 < 0.50, -0.30 < a8 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.09
6.02.02.03.02
-5.00 < b9 < 5.00, -0.30 < a9 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.10
6.02.02.03.02
-0.35 < b10 < 0.35, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.11
6.02.02.03.02
-0.30 < b11 < 0.30, -0.15 < a11 < 0.15
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.12
6.02.02.03.02
-0.30 < b12 < 0.30, -0.15 < a12 < 0.15
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.13
6.02.02.03.02
-0.25 < b13 < 0.25, -0.10 < a13 < 0.10
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.14
6.02.02.03.02
-0.20 < b14 < 0.20, -0.10 < a14 < 0.10
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.15
6.02.02.03.02
-1.00 < b15 < 1.00, -0.10 < a15 < 0.10
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.03.03.16
6.02.02.03.02
-0.20 < b16 < 0.20, -0.10 < a16 < 0.10
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.06
6.02.02.03.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +15 (C) to +50 (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-SXT:57.09
6.02.02.03.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-SXT:57.10
6.02.02.03.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

R-ESR-MAG-SXT:57.01.01
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) with isolation valves in the tunnel to be utilized by the magnets.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.01.02
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) to be utilized by the magnets.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.01.03
The magnet group shall provide all distribution design of the piping (or hoses) for Low Conductivity Water (LCW) from the tunnel header to the Cryomodules to be utilized by the magnets.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.01.04
The Accelerator Installation WBS CAM shall fund and schedule piping installation (or hosing) between the Low Conductivity Water (LCW) infrastructure and the magnets by the appropriate technical support groups.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.02.01
The Accelerator Installation WBS CAM shall schedule and fund cable installation from the power supply to the magnets by the appropriate technical support group.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.02.02
The Power Supply Group shall purchase the cables that go from the Power Supply to the magnets.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.02.03
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet terminals and power supply ends.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.02.04
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.02.05
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.02.06
The Magnet Group shall provide a terminal block with standard polarity labels to facilitate installation of the main winding magnet power cables from the Accelerator Installation WBS CAM.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.02.07
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.03.01
The Accelerator Installation WBS CAM shall schedule and fund installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support group.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.03.02
The Power Supply Group shall purchase the cables that go from the thermal switch on the magnet to the Power Supply.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.03.03
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.03.04
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s).
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.03.05
The Magnet Group shall provide the terminal block with labeling to facilitate installation of the connection for thermal protection.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.03.06
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.04.01
The Vacuum Group shall design the beampipe integration to the magnets.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.04.02
The Accelerator Installation WBS CAM shall schedule and fund installing the beampipe through the magnets and installing the magnets by the appropriate technical support group.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.04.03
The Vacuum Group will provide temporary thermal couples to the magnets for beamline bakeout. The magnet and coil temperature shall not exceed 150 degrees F during beamline bakeout.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.04.04
The Magnet Group shall provide analysis of potential thermally conductive paths between the magnet and beampipe.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.05.01
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.05.02
The BNL Magnet Group shall procure the girders for the Accelerator Installation WBS CAM to install.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.05.03
The Survey Group shall fiducialize the magnet based on magnetic center after they have been installed onto the girder.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.05.04
The Magnet Group shall provide magnet design CAD models to the Mechanical Design Group to facilitate the design of the magnet girder.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.05.05
The Accelerator Installation WBS CAM shall schedule and fund installing the final assembled magnet girder to the tunnel by the appropriate technical support group.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.06.01
The Mechanical Design Group shall model the tunnel to define the required spacial location of the magnets and girders.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.06.02
The Survey Group will provide the arrangement location for the magnets and girders.
01/12/2026
In Process
FALSE

R-ESR-MAG-SXT:57.6.03
The Magnet Group shall provide analysis and approval of the magnet installations and potential interferences to the Mechanical Design Group.
01/12/2026
In Process
FALSE

ESR-MAG-Q:50 : ESR Quadrupole Magnet (Q50) (WBS 6.04.03.01)

P-ESR-MAG-Q:50.01.01
6.01.02.02
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.01.04
6.01.02.02
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.01.05
6.01.02.02
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.01.06
6.01.02.02
The physical magnet length shall be <0.5 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.01.07
6.01.02.02
The effective magnet length shall be 0.5 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.01.09
6.01.02.02
The pole tip radius of the magnet shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.01.11.02
6.01.02.02
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.02.02
6.01.02.02
The magnet integrated grad field G shall be 9.4 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.02.07
6.01.02.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03
6.01.02.02
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.01
6.01.02.02
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.02
6.01.02.02
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03
6.01.02.02
The magnet bore field shall require the following multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.02
6.01.02.02
b2 = 10000 , a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.03
6.01.02.02
b3 = HV +/- 2.2 , a3 = +/- 2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.04
6.01.02.02
b4 = HV +/- 2.4 , a4 = +/- 0.7
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.05
6.01.02.02
b5 = HV +/- 1.0 , a5 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.06
6.01.02.02
b6 = HV +/- 1.0 , a6 = +/- 0.2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.07
6.01.02.02
b7 = HV +/- 1.0 , a7 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.08
6.01.02.02
b8 = HV +/- 1.0 , a8 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.09
6.01.02.02
b9 = HV +/- 1.0 , a9 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.10
6.01.02.02
b10 = HV +/- 1.0 , a10 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.11
6.01.02.02
b11 = HV +/- 1.0 , a11 = +/- 0.4
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.12
6.01.02.02
b12 = HV +/- 1.0 , a12 = +/- 0.3
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.13
6.01.02.02
b13 = HV +/- 1.0 , a13 = +/- 0.2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.03.03.14
6.01.02.02
b14 = HV +/- 1.0 , a14 = +/- 0.15
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05.01
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.06.01
6.01.02.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:50.09
6.01.02.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.10
6.01.02.02
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
In Process
FALSE

ESR-MAG-Q:50 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

ESR-MAG-Q:60 : ESR Quadrupole Magnet (Q60) (WBS 6.04.03.01)

P-ESR-MAG-Q:60.01.01
6.01.02.02
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.01.04
6.01.02.02
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.01.05
6.01.02.02
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.01.06
6.01.02.02
The physical magnet length shall be <0.6 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.01.07
6.01.02.02
The effective magnet length shall be 0.6 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.01.09
6.01.02.02
The pole tip radius of the magnet shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.01.11.02
6.01.02.02
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.02.02
6.01.02.02
The magnet integrated grad field G shall be 11.0 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.02.07
6.01.02.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03
6.01.02.02
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.01
6.01.02.02
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.02
6.01.02.02
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03
6.01.02.02
The magnet bore field shall require the following multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.02
6.01.02.02
b2 = 10000 , a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.03
6.01.02.02
b3 = HV +/- 2.2 , a3 = +/- 2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.04
6.01.02.02
b4 = HV +/- 2.4 , a4 = +/- 0.7
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.05
6.01.02.02
b5 = HV +/- 1.0 , a5 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.06
6.01.02.02
b6 = HV +/- 1.0 , a6 = +/- 0.2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.07
6.01.02.02
b7 = HV +/- 1.0 , a7 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.08
6.01.02.02
b8 = HV +/- 1.0 , a8 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.09
6.01.02.02
b9 = HV +/- 1.0 , a9 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.10
6.01.02.02
b10 = HV +/- 1.0 , a10 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.11
6.01.02.02
b11 = HV +/- 1.0 , a11 = +/- 0.4
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.12
6.01.02.02
b12 = HV +/- 1.0 , a12 = +/- 0.3
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.13
6.01.02.02
b13 = HV +/- 1.0 , a13 = +/- 0.2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.03.03.14
6.01.02.02
b14 = HV +/- 1.0 , a14 = +/- 0.15
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05.01
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.06
6.01.02.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:60.09
6.01.02.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.10
6.01.02.02
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
In Process
FALSE

ESR-MAG-Q:60 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

ESR-MAG-Q:80 : ESR Quadrupole Magnet (Q80) (WBS 6.04.03.01)

P-ESR-MAG-Q:80.01.01
6.01.02.02
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.01.04
6.01.02.02
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.01.05
6.01.02.02
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.01.06
6.01.02.02
The physical magnet length shall be <0.8 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.01.07
6.01.02.02
The effective magnet length shall be 0.8 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.01.09
6.01.02.02
The pole tip radius of the magnet shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.01.11.02
6.01.02.02
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.02.02
6.01.02.02
The magnet integrated grad field G shall be 15.1 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.02.07
6.01.02.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03
6.01.02.02
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.01
6.01.02.02
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.02
6.01.02.02
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03
6.01.02.02
The magnet bore field shall require the following multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.02
6.01.02.02
b2 = 10000 , a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.03
6.01.02.02
b3 = HV +/- 2.2 , a3 = +/- 2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.04
6.01.02.02
b4 = HV +/- 2.4 , a4 = +/- 0.7
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.05
6.01.02.02
b5 = HV +/- 1.0 , a5 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.06
6.01.02.02
b6 = HV +/- 1.0 , a6 = +/- 0.2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.07
6.01.02.02
b7 = HV +/- 1.0 , a7 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.08
6.01.02.02
b8 = HV +/- 1.0 , a8 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.09
6.01.02.02
b9 = HV +/- 1.0 , a9 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.10
6.01.02.02
b10 = HV +/- 1.0 , a10 = +/- 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.11
6.01.02.02
b11 = HV +/- 1.0 , a11 = +/- 0.4
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.12
6.01.02.02
b12 = HV +/- 1.0 , a12 = +/- 0.3
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.13
6.01.02.02
b13 = HV +/- 1.0 , a13 = +/- 0.2
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.03.03.14
6.01.02.02
b14 = HV +/- 1.0 , a14 = +/- 0.15
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05.01
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.06
6.01.02.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:80.09
6.01.02.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.10
6.01.02.02
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
In Process
FALSE

ESR-MAG-Q:80 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

ESR-MAG-QLA:135 : ESR Large Aperture Quadrupole Magnet (Q_LA) (WBS 6.04.03.01.02)

P-ESR-MAG-QLA:135.01.01
6.02.02.03.04.02
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.01.04
6.02.02.03.04.02
The magnet shall be require shunt resistors for beam-based alignment, TBD A at TBD GeV.
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QLA:135.01.05
6.02.02.03.04.02
The magnet shall be designed to have a splitable yoke to accommodate the Vacuum beam pipe installation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.01.06
6.02.02.03.04.02
The maximum physical magnet length shall be 1.35(m).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.01.09
6.02.02.03.04.02
The magnet pole tip radius shall be 104 (mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.01.11
6.02.02.03.04.02
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.01.11.01
6.02.02.03.04.02
The maximum magnet axial dimensions shall be X = 90 (cm) and Y = 80 (cm).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.01.11.02
6.02.02.03.04.02
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.02.02
6.02.02.03.04.02
The magnet integrated grad field G shall be 9.7 (T).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.02.06
6.02.02.03.04.02
The magnet to magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.02.07
6.02.02.03.04.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.01
6.02.02.03.04.02
The field harmonic measurements shall be measured at the reference radius of 25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.02
6.02.02.03.04.02
The reference field for the measurement shall be 9.7 (T).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03
6.02.02.03.04.02
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.02
6.02.02.03.04.02
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.03
6.02.02.03.04.02
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.04
6.02.02.03.04.02
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.05
6.02.02.03.04.02
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.06
6.02.02.03.04.02
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.07
6.02.02.03.04.02
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.08
6.02.02.03.04.02
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.09
6.02.02.03.04.02
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.10
6.02.02.03.04.02
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.11
6.02.02.03.04.02
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.12
6.02.02.03.04.02
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.13
6.02.02.03.04.02
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.14
6.02.02.03.04.02
-0.30 < b14 < 0.30, -0.20 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.15
6.02.02.03.04.02
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.03.03.16
6.02.02.03.04.02
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.06
6.02.02.03.04.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +15 (C) to +50 (C).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.08.01
6.02.02.03.04.02
The magnet coils shall have a maximum current leak of 10 uA during Hi-Pot test at nominal operating conditions corresponding to 1 (kV).
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.09
6.02.02.03.04.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QLA:135.10
6.02.02.03.04.02
The magnet shall be designed with components capable to withstand a lifetime radiation dose of 1 MGy.
02/09/2026
Approved
FALSE

R-ESR-MAG-QLA:135.01.01
6.04.03.02
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) with isolation valves in the tunnel to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.01.02
6.04.03.02
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.01.03
6.04.03.02
The magnet group shall provide all distribution design of the piping (or hoses) for Low Conductivity Water (LCW) from the tunnel header to the Cryomodules to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.01.04
6.04.03.02
The Accelerator Installation WBS CAM shall fund and schedule piping installation (or hosing) between the Low Conductivity Water (LCW) infrastructure and the magnets by the appropriate technical support groups.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.02.01
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund cable installation from the power supply to the magnets by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.02.02
6.04.03.02
The Power Supply Group shall purchase the cables that go from the Power Supply to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.02.03
6.04.03.02
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet terminals and power supply ends.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.02.04
6.04.03.02
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.02.05
6.04.03.02
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.02.06
6.04.03.02
The Magnet Group shall provide a terminal block with standard polarity labels to facilitate installation of the main winding magnet power cables from the Accelerator Installation WBS CAM.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.02.07
6.04.03.02
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.03.01
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.03.02
6.04.03.02
The Power Supply Group shall purchase the cables that go from the thermal switch on the magnet to the Power Supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.03.03
6.04.03.02
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.03.04
6.04.03.02
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.03.05
6.04.03.02
The Magnet Group shall provide the terminal block with labeling to facilitate installation of the connection for thermal protection.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.03.06
6.04.03.02
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.04.01
6.04.03.02
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.04.02
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing the beampipe through the magnets and installing the magnets by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.04.03
6.04.03.02
The Vacuum Group will provide temporary thermal couples to the magnets for beamline bakeout. The magnet and coil temperature shall not exceed 150 degrees F during beamline bakeout.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.04.04
6.04.03.02
The Magnet Group shall provide analysis of potential thermally conductive paths between the magnet and beampipe.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.05.01
6.04.03.02
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.05.02
6.04.03.02
The BNL Magnet Group shall procure the girders for the Accelerator Installation WBS CAM to install.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.05.03
6.04.03.02
The Survey Group shall fiducialize the magnet based on magnetic center after they have been installed onto the girder.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.05.04
6.04.03.02
The Magnet Group shall provide magnet design CAD models to the Mechanical Design Group to facilitate the design of the magnet girder.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.05.05
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing the final assembled magnet girder to the tunnel by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.06.01
6.04.03.02
The Mechanical Design Group shall model the tunnel to define the required spacial location of the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.06.02
6.04.03.02
The Survey Group will provide the arrangement location for the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.06.03
6.04.03.02
The Magnet Group shall provide analysis and approval of the magnet installations and potential interferences to the Mechanical Design Group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.06.04
6.04.03.02
The Mechanical Design Group shall provide the spacial limitation between the beampipe and the magnet pole after all radiation shielding has been added.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.07.01
6.04.03.02
The Magnet Group shall provide a terminal block to facilitate installation of the Beam Based Alignment shunt resistor/switch power cables and connections from the Accelerator Installation WBS CAM
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.07.02
6.04.03.02
The Magnet Group shall provide a way to mount the Beam Based Alignment shunt resistor/switch chasssis from the Accelerator Installation WBS CAM
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-QLA:135.07.03
6.04.03.02
The Power Supply Group shall make connections of the Beam Based Alignment shunt resistor/switch chasssis cables at the magnet and PS ends
01/08/2026
Not Applicable
FALSE

ESR-MAG-QN:80 : ESR Narrow Quadrupole Magnet (QN) (WBS 6.04.03.01.02)

ESR-MAG-QN:80 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.05
6.02.02.03.04.01
The magnet shall be designed to have a splitable yoke.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.06
6.02.02.03.04.01
The maximum physical magnet length shall be 0.88 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.09
6.02.02.03.04.01
The magnet pole tip radius shall be 40 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11
6.02.02.03.04.01
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.01
6.02.02.03.04.01
The maximum magnet axial dimensions shall be X = 45 cm and Y = 45 cm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.02
6.02.02.03.04.01
The magnet install center and install alignment must be within a translational value of +/- 150 (um) and a rotational alignment value of +/- 0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.07
6.02.02.03.04.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 50 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.01
6.02.02.03.04.01
The field harmonic measurements shall be measured at the reference radius of 25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.02
6.02.02.03.04.01
The reference integrated field for the measurement shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.06
6.04.03.01.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +15 (C) to +50 (C).
07/29/2025
Approved
FALSE

P-ESR-MAG-QN:80.09
6.02.02.03.04.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.10
6.02.02.03.04.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-Q:120 : ESR Quadrupole Magnet (Q120) (WBS 6.04.03.02)

P-ESR-MAG-Q:120.01.01
6.04.03.03.02.02
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.01.05
6.04.03.03.02.02
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation.
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.01.06
6.04.03.03.02.02
The physical magnet length shall be <1.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.01.09
6.04.03.03.02.02
The magnet pole tip radius shall be 40 mm.
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.01.11
6.04.03.03.02.02
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.01.11.01
6.04.03.03.02.02
Magnet installation tolerances, Max X = 42 cm May Y = 42 cm
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.01.11.02
6.04.03.03.02.02
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.02.02
6.04.03.03.02.02
The magnet integrated grad field G shall be 18.9 T/m.
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.02.06
6.04.03.03.02.02
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.02.07
6.04.03.03.02.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.03.01
6.04.03.03.02.02
The field harmonic measurements shall be measured at Rref=25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.02
6.04.03.03.02.02
The reference field for the measurement shall be TBD (T/m).
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.03.03
6.04.03.03.02.02
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.01
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.02
6.04.03.03.02.02
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.03
6.04.03.03.02.02
-2.71<b3<0.72, -2.13<a3<2.11
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.04
6.04.03.03.02.02
-3.58<b4<1.2, -0.47<a4<0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.05
6.04.03.03.02.02
-0.53<b5<0.23, -0.29<a5<0.35
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.06
6.04.03.03.02.02
-1.75<b6<-1.12, -0.07<a6<0.08
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.07
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.08
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.09
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.10
6.04.03.03.02.02
-1.06<b10<-0.66, 0<a10<0
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.11
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.12
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.13
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.14
6.04.03.03.02.02
-0.12<b14<-0.08, 0<a14<0
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.03.03.15
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.03.03.16
6.04.03.03.02.02
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-Q:120.04
6.04.03.03.02.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.05
6.04.03.03.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.05.01
6.04.03.03.02.02
The magnet shall be designed to meet the following fringe field requirements The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at TBD mm from the magnet center.
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.06
6.04.03.03.02.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:120.09
6.04.03.03.02.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:120.10
6.04.03.03.02.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-QS:25 : ESR Skew Quadrupole Magnet (QS) (WBS 6.04.03.02)

P-ESR-MAG-QS:25.01.01
6.04.03.03.02.01
The magnet shall be a single function quadrupole with a skew field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QS:25.01.05
6.04.03.03.02.01
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.01.06
6.04.03.03.02.01
The physical magnet length shall be <0.25 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QS:25.01.07
6.04.03.03.02.01
The magnet model length shall be 0.25 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QS:25.01.09
6.04.03.03.02.01
The magnet pole tip radius shall be 67.9 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QS:25.01.11
6.04.03.03.02.01
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.01.11.01
6.04.03.03.02.01
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.01.11.02
6.04.03.03.02.01
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.02.02
6.04.03.03.02.01
The magnet integrated grad field G shall be 1.5 T/m.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QS:25.02.06
6.04.03.03.02.01
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QS:25.02.07
6.04.03.03.02.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.01
6.04.03.03.02.01
The harmonic reference radius at the design energy of 18 GeV shall be TBD (mm) .
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.02
6.04.03.03.02.01
The field at the reference radius at the design energy of 18 GeV shall be TBD (T/m) .
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03
6.04.03.03.02.01
The magnet bore field shall require the following multipole content:
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.01
6.04.03.03.02.01
b1 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.02
6.04.03.03.02.01
b2 = 10000 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.03
6.04.03.03.02.01
b3 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.04
6.04.03.03.02.01
b4 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.05
6.04.03.03.02.01
b5 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.06
6.04.03.03.02.01
b6 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.07
6.04.03.03.02.01
b7 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.08
6.04.03.03.02.01
b8 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.09
6.04.03.03.02.01
b9 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.10
6.04.03.03.02.01
b10 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.11
6.04.03.03.02.01
b11 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.12
6.04.03.03.02.01
b12 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.13
6.04.03.03.02.01
b13 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.14
6.04.03.03.02.01
b14 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.15
6.04.03.03.02.01
b15 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.03.03.16
6.04.03.03.02.01
b16 < 1 (10^-4)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.04
6.04.03.03.02.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.05
6.04.03.03.02.01
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.05.01
6.04.03.03.02.01
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QS:25.09
6.04.03.03.02.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QS:25.10
6.04.03.03.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-TFFB : ESR Fast Feed Back Corrector Magnet (T_FFB) (WBS 6.04.03.02)

ESR-MAG-TH:20 : ESR Horizontal Corrector Magnet (TH) (WBS 6.04.03.02)

P-ESR-MAG-TH:20.01.11
6.02.02.03.05.01
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.01
6.02.02.03.05.01
The maximum magnet axial dimensions shall be X = 43.2 cm and Y = 61 cm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.02
6.02.02.03.05.01

02/09/2026
Not Applicable
FALSE

P-ESR-MAG-TH:20.04
6.02.02.03.05.01
The magnet should not be designed to limit CrossTalk requirements.
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-TH:20.05
6.02.02.03.05.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at TBD mm from the magnet axis.
02/09/2026
In Process
FALSE

P-ESR-MAG-TH:20.08.01
6.02.02.03.05.01
The magnet coils shall pass a Hi-Pot test at nominal operating conditions corresponding to TBD (V).
02/09/2026
In Process
FALSE

ESR-MAG-TH:20 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 52 and 150 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.05
6.02.02.03.05.01
The magnet reference radius for field homogeneity shall be 15 (mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.07
6.02.02.03.05.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.06
6.02.02.03.05.01
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-TH:20.09
6.02.02.03.05.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.10
6.02.02.03.05.01
The magnet shall be designed with components capable to withstand a lifetime radiation dose of 1 MGy.
02/09/2026
Approved
FALSE

ESR-MAG-THLA:60 : ESR IR10 Horizontal Corrector Magnet (TH_LA) (WBS 6.04.03.02)

P-ESR-MAG-THLA:60.01.01
6.02.02.03.05.02
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.01.06
6.02.02.03.05.02
The maximum physical magnet length shall be 0.6 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.01.10
6.02.02.03.05.02
The minimal magnet bore gap and width shall be 208 and 208 (mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.01.11
6.02.02.03.05.02
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.01.11.01
6.02.02.03.05.02
The maximum magnet axial dimensions shall be X = 45 (cm) and Y = 63 (cm).
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.01.11.02
6.02.02.03.05.02
The magnet install center and install alignment must be within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.02.01
6.02.02.03.05.02
The magnet integrated dipole field (B) shall be 12 (mT-m).
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.02.05
6.02.02.03.05.02
The magnet reference radius for field homogeneity shall be 17 (mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.02.06
6.02.02.03.05.02
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.02.07
6.02.02.03.05.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03
6.02.02.03.05.02
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.01
6.02.02.03.05.02
The magnet field quality shall be measured within the reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.02
6.02.02.03.05.02

02/09/2026
Not Applicable
FALSE

P-ESR-MAG-THLA:60.03.03
6.02.02.03.05.02
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.01
6.02.02.03.05.02
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.02
6.02.02.03.05.02
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.03
6.02.02.03.05.02
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.04
6.02.02.03.05.02
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.05
6.02.02.03.05.02
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.06
6.02.02.03.05.02
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.07
6.02.02.03.05.02
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.08
6.02.02.03.05.02
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.09
6.02.02.03.05.02
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.10
6.02.02.03.05.02
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.11
6.02.02.03.05.02
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.12
6.02.02.03.05.02
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.13
6.02.02.03.05.02
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.14
6.02.02.03.05.02
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.15
6.02.02.03.05.02
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.03.03.16
6.02.02.03.05.02
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.06
6.02.02.03.05.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +15 (C) to +50 (C).
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.09
6.02.02.03.05.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-THLA:60.10
6.02.02.03.05.02
The magnet shall be designed with components capable to withstand a lifetime radiation dose of 1 MGy.
02/09/2026
Approved
FALSE

ESR-MAG-THS : ESR Spin Quadrupole Horizontal Corrector Magnet (THS) (WBS 6.04.03.02)

ESR-MAG-TV:20 : ESR Vertical Corrector Magnet (TV) (WBS 6.04.03.02)

P-ESR-MAG-TV:20.01.11
6.02.02.03.05.01
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.01
6.02.02.03.05.01
The maximum magnet axial dimensions shall be X = 61 cm and Y = 43.2 cm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.02
6.02.02.03.05.01

02/09/2026
Not Applicable
FALSE

P-ESR-MAG-TV:20.04
6.02.02.03.05.01
The magnet should not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.05
6.02.02.03.05.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at TBD mm from the magnet axis.
02/09/2026
In Process
FALSE

P-ESR-MAG-TV:20.08.01
6.02.02.03.05.01
The magnet coils shall pass a Hi-Pot test at nominal operating conditions corresponding to TBD (V).
02/09/2026
In Process
FALSE

ESR-MAG-TV:20 EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.10
6.02.02.03.05.01
The minimal magnet bore gap and width shall be 150 and 52 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.11.02
6.02.02.03.05.01
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.05
6.02.02.03.05.01
The magnet reference radius for homogeneity shall be 17 (mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.07
6.02.02.03.05.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.03
6.02.02.03.05.01
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.06
6.02.02.03.05.01
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
In Process
FALSE

P-ESR-MAG-TV:20.09
6.02.02.03.05.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.10
6.02.02.03.05.01
The magnet shall be designed with components capable to withstand a lifetime radiation dose of 1 MGy.
02/09/2026
Approved
FALSE

ESR-MAG-TVLA:60 : ESR IR10 Vertical Corrector Magnet (TV_LA) (WBS 6.04.03.02)

P-ESR-MAG-TVLA:60.01.01
6.02.02.03.05.02
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.01.06
6.02.02.03.05.02
The maximum physical magnet length shall be 0.6 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.01.10
6.02.02.03.05.02
The minimal magnet bore gap and width shall be 208 and 208 (mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.01.11
6.02.02.03.05.02
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.01.11.01
6.02.02.03.05.02
The maximum magnet axial dimensions shall be X = 63 (cm) and Y = 45 (cm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.01.11.02
6.02.02.03.05.02
The magnet install center and install alignment must be within a translational value of +/- 500(um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.02.01
6.02.02.03.05.02
The magnet integrated dipole field (B) shall be 12 (mT-m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.02.05
6.02.02.03.05.02
The magnet reference radius for homoegeneity shall be 17 (mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.02.06
6.02.02.03.05.02
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.02.07
6.02.02.03.05.02
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- 500 (um) and a rotational alignment value of +/-0.3 (mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03
6.02.02.03.05.02
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.01
6.02.02.03.05.02
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.02
6.02.02.03.05.02

02/09/2026
Not Applicable
FALSE

P-ESR-MAG-TVLA:60.03.03
6.02.02.03.05.02
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.01
6.02.02.03.05.02
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.02
6.02.02.03.05.02
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.03
6.02.02.03.05.02
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.04
6.02.02.03.05.02
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.05
6.02.02.03.05.02
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.06
6.02.02.03.05.02
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.07
6.02.02.03.05.02
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.08
6.02.02.03.05.02
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.09
6.02.02.03.05.02
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.10
6.02.02.03.05.02
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.11
6.02.02.03.05.02
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.12
6.02.02.03.05.02
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.13
6.02.02.03.05.02
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.14
6.02.02.03.05.02
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.15
6.02.02.03.05.02
-25 < a125 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.03.03.16
6.02.02.03.05.02
-5 < a16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.04.06
6.02.02.03.05.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +15 (C) to +50 (C).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.05
6.02.02.03.05.02
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at TBD mm from the magnet axis.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.06
6.02.02.03.05.02
The magnet shall be designed to be cooled and sustained at an operational temperature range of +X (C) to +X (C).
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.09
6.02.02.03.05.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TVLA:60.10
6.02.02.03.05.02
The magnet shall be designed with components capable to withstand a lifetime radiation dose of 1 MGy.
02/09/2026
Approved
FALSE

ESR-MAG-TVS : ESR Spin Quadrupole Vertical Corrector Magnet (TVS) (WBS 6.04.03.02)

ESR-MAG-QROT:114 : ESR Quadrupole Magnet (QSS3) (WBS 6.06.02.02)

P-ESR-MAG-QROT:114.01.01
6.04.03.03.02.03
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.01.05
6.04.03.03.02.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.01.06
6.04.03.03.02.03
The physical magnet length shall be <1.14 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.01.09
6.04.03.03.02.03
The magnet pole tip radius shall be 67.9 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QROT:114.01.11
6.04.03.03.02.03
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.01.11.01
6.04.03.03.02.03
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.01.11.02
6.04.03.03.02.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.02.02
6.04.03.03.02.03
The magnet integrated grad field G shall be 24 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.02.06
6.04.03.03.02.03
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.02.07
6.04.03.03.02.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.03.01
6.04.03.03.02.03
The field harmonic measurements shall be measured at Rref=25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.02
6.04.03.03.02.03
The reference field for the measurement shall be TBD (T/m).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.03.03
6.04.03.03.02.03
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.01
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.02
6.04.03.03.02.03
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.03
6.04.03.03.02.03
-2.71<b3<0.72, -2.13<a3<2.11
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.04
6.04.03.03.02.03
-3.58<b4<1.2, -0.47<a4<0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.05
6.04.03.03.02.03
-0.53<b5<0.23, -0.29<a5<0.35
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.06
6.04.03.03.02.03
-1.75<b6<-1.12, -0.07<a6<0.08
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.07
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.08
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.09
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.10
6.04.03.03.02.03
-1.06<b10<-0.66, 0<a10<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.11
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.12
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.13
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.14
6.04.03.03.02.03
-0.12<b14<-0.08, 0<a14<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.03.03.15
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.03.03.16
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:114.04
6.04.03.03.02.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.05
6.04.03.03.02.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.05.01
6.04.03.03.02.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:114.09
6.04.03.03.02.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:114.10
6.04.03.03.02.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-QROT:122 : ESR Quadrupole Magnet (QSS1) (WBS 6.06.02.02)

P-ESR-MAG-QROT:122.01.01
6.04.03.03.02.03
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.01.05
6.04.03.03.02.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.01.06
6.04.03.03.02.03
The physical magnet length shall be <1.22 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.01.09
6.04.03.03.02.03
The magnet pole tip radius shall be 67.9 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QROT:122.01.11
6.04.03.03.02.03
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.01.11.01
6.04.03.03.02.03
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.01.11.02
6.04.03.03.02.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.02.02
6.04.03.03.02.03
The magnet integrated grad field G shall be 24 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.02.06
6.04.03.03.02.03
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.02.07
6.04.03.03.02.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.03.01
6.04.03.03.02.03
The field harmonic measurements shall be measured at Rref=25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.02
6.04.03.03.02.03
The reference field for the measurement shall be TBD (T/m).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.03.03
6.04.03.03.02.03
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.01
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.02
6.04.03.03.02.03
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.03
6.04.03.03.02.03
-2.71<b3<0.72, -2.13<a3<2.11
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.04
6.04.03.03.02.03
-3.58<b4<1.2, -0.47<a4<0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.05
6.04.03.03.02.03
-0.53<b5<0.23, -0.29<a5<0.35
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.06
6.04.03.03.02.03
-1.75<b6<-1.12, -0.07<a6<0.08
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.07
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.08
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.09
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.10
6.04.03.03.02.03
-1.06<b10<-0.66, 0<a10<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.11
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.12
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.13
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.14
6.04.03.03.02.03
-0.12<b14<-0.08, 0<a14<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.03.03.15
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.03.03.16
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:122.04
6.04.03.03.02.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.05
6.04.03.03.02.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.05.01
6.04.03.03.02.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:122.09
6.04.03.03.02.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:122.10
6.04.03.03.02.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-QROT:138 : ESR Quadrupole Magnet (QSS4) (WBS 6.06.02.02)

P-ESR-MAG-QROT:138.01.01
6.04.03.03.02.03
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.01.05
6.04.03.03.02.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.01.06
6.04.03.03.02.03
The physical magnet length shall be <1.38 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.01.09
6.04.03.03.02.03
The magnet pole tip radius shall be 67.9 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QROT:138.01.11
6.04.03.03.02.03
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.01.11.01
6.04.03.03.02.03
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.01.11.02
6.04.03.03.02.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.02.02
6.04.03.03.02.03
The magnet integrated grad field G shall be 24 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.02.06
6.04.03.03.02.03
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.02.07
6.04.03.03.02.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.03.01
6.04.03.03.02.03
The field harmonic measurements shall be measured at Rref=25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.02
6.04.03.03.02.03
The reference field for the measurement shall be TBD (T/m).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.03.03
6.04.03.03.02.03
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.01
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.02
6.04.03.03.02.03
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.03
6.04.03.03.02.03
-2.71<b3<0.72, -2.13<a3<2.11
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.04
6.04.03.03.02.03
-3.58<b4<1.2, -0.47<a4<0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.05
6.04.03.03.02.03
-0.53<b5<0.23, -0.29<a5<0.35
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.06
6.04.03.03.02.03
-1.75<b6<-1.12, -0.07<a6<0.08
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.07
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.08
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.09
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.10
6.04.03.03.02.03
-1.06<b10<-0.66, 0<a10<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.11
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.12
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.13
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.14
6.04.03.03.02.03
-0.12<b14<-0.08, 0<a14<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.03.03.15
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.03.03.16
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:138.04
6.04.03.03.02.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.05
6.04.03.03.02.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.05.01
6.04.03.03.02.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:138.09
6.04.03.03.02.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:138.10
6.04.03.03.02.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-QROT:188 : ESR Quadrupole Magnet (QSS5) (WBS 6.06.02.02)

P-ESR-MAG-QROT:188.01.01
6.04.03.03.02.03
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.01.05
6.04.03.03.02.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.01.06
6.04.03.03.02.03
The physical magnet length shall be <1.88 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.01.09
6.04.03.03.02.03
The magnet pole tip radius shall be 67.9 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QROT:188.01.11
6.04.03.03.02.03
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.01.11.01
6.04.03.03.02.03
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.01.11.02
6.04.03.03.02.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.02.02
6.04.03.03.02.03
The magnet integrated grad field G shall be 24 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.02.06
6.04.03.03.02.03
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.02.07
6.04.03.03.02.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.03.01
6.04.03.03.02.03
The field harmonic measurements shall be measured at Rref=25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.02
6.04.03.03.02.03
The reference field for the measurement shall be TBD (T/m).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.03.03
6.04.03.03.02.03
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.01
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.02
6.04.03.03.02.03
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.03
6.04.03.03.02.03
-2.71<b3<0.72, -2.13<a3<2.11
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.04
6.04.03.03.02.03
-3.58<b4<1.2, -0.47<a4<0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.05
6.04.03.03.02.03
-0.53<b5<0.23, -0.29<a5<0.35
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.06
6.04.03.03.02.03
-1.75<b6<-1.12, -0.07<a6<0.08
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.07
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.08
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.09
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.10
6.04.03.03.02.03
-1.06<b10<-0.66, 0<a10<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.11
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.12
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.13
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.14
6.04.03.03.02.03
-0.12<b14<-0.08, 0<a14<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.03.03.15
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.03.03.16
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:188.04
6.04.03.03.02.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.05
6.04.03.03.02.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.05.01
6.04.03.03.02.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:188.09
6.04.03.03.02.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:188.10
6.04.03.03.02.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-QROT:197 : ESR Quadrupole Magnet (QSS2) (WBS 6.06.02.02)

P-ESR-MAG-QROT:197.01.01
6.04.03.03.02.03
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.01.05
6.04.03.03.02.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.01.06
6.04.03.03.02.03
The physical magnet length shall be <1.97 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.01.09
6.04.03.03.02.03
The magnet pole tip radius shall be 67.9 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QROT:197.01.11
6.04.03.03.02.03
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.01.11.01
6.04.03.03.02.03
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.01.11.02
6.04.03.03.02.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.02.02
6.04.03.03.02.03
The magnet integrated grad field G shall be 24 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.02.06
6.04.03.03.02.03
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.02.07
6.04.03.03.02.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.03.01
6.04.03.03.02.03
The field harmonic measurements shall be measured at Rref=25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.02
6.04.03.03.02.03
The reference field for the measurement shall be TBD (T/m).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.03.03
6.04.03.03.02.03
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.01
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.02
6.04.03.03.02.03
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.03
6.04.03.03.02.03
-2.71<b3<0.72, -2.13<a3<2.11
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.04
6.04.03.03.02.03
-3.58<b4<1.2, -0.47<a4<0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.05
6.04.03.03.02.03
-0.53<b5<0.23, -0.29<a5<0.35
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.06
6.04.03.03.02.03
-1.75<b6<-1.12, -0.07<a6<0.08
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.07
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.08
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.09
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.10
6.04.03.03.02.03
-1.06<b10<-0.66, 0<a10<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.11
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.12
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.13
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.14
6.04.03.03.02.03
-0.12<b14<-0.08, 0<a14<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.03.03.15
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.03.03.16
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:197.04
6.04.03.03.02.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.05
6.04.03.03.02.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.05.01
6.04.03.03.02.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:197.09
6.04.03.03.02.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:197.10
6.04.03.03.02.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-QROT:87 : ESR Quadrupole Magnet (QLS3) (WBS 6.06.02.02)

P-ESR-MAG-QROT:87.01.01
6.04.03.03.02.03
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.01.05
6.04.03.03.02.03
The magnet shall be designed to have a splitable pole to accommodate the Vacuum beam pipe installation TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.01.06
6.04.03.03.02.03
The physical magnet length shall be <0.87 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.01.09
6.04.03.03.02.03
The magnet pole tip radius shall be 67.9 mm.
02/09/2026
Reviewed
FALSE

P-ESR-MAG-QROT:87.01.11
6.04.03.03.02.03
The magnet shall be designed to fit within the following envelope. TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.01.11.01
6.04.03.03.02.03
Magnet installation tolerances TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.01.11.02
6.04.03.03.02.03
The magnet install center and install alignment must be within a translational value of +/-TBD (um) and a rotational alignment value of +/- TBD (mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.02.02
6.04.03.03.02.03
The magnet integrated grad field G shall be 24 T/m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.02.06
6.04.03.03.02.03
The magnet to magnet field variability between magnets shall be less than 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.02.07
6.04.03.03.02.03
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/- TBD (um) and a rotational alignment value of +/- TBD(mrad).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.03.01
6.04.03.03.02.03
The field harmonic measurements shall be measured at Rref=25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.02
6.04.03.03.02.03
The reference field for the measurement shall be TBD (T/m).
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.03.03
6.04.03.03.02.03
The magnet bore field shall have a field homogeneity in the region of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in the region.owing multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.01
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.02
6.04.03.03.02.03
b2=10000
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.03
6.04.03.03.02.03
-2.71<b3<0.72, -2.13<a3<2.11
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.04
6.04.03.03.02.03
-3.58<b4<1.2, -0.47<a4<0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.05
6.04.03.03.02.03
-0.53<b5<0.23, -0.29<a5<0.35
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.06
6.04.03.03.02.03
-1.75<b6<-1.12, -0.07<a6<0.08
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.07
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.08
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.09
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.10
6.04.03.03.02.03
-1.06<b10<-0.66, 0<a10<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.11
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.12
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.13
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.14
6.04.03.03.02.03
-0.12<b14<-0.08, 0<a14<0
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.03.03.15
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.03.03.16
6.04.03.03.02.03
-, -
02/09/2026
Not Applicable
FALSE

P-ESR-MAG-QROT:87.04
6.04.03.03.02.03
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.05
6.04.03.03.02.03
The magnet shall be designed to specifically constrain the external fringe field TBD (Yes or No)
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.05.01
6.04.03.03.02.03
The magnet shall be designed to meet the following fringe field requirements TBD
02/09/2026
In Process
FALSE

P-ESR-MAG-QROT:87.09
6.04.03.03.02.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-QROT:87.10
6.04.03.03.02.03
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

ESR-MAG-THLA:60a

R-ESR-MAG-THLA:60a.01.01
6.04.03.02
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the ESR Correctors.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.01.02
6.04.03.02
The Infrastructure group shall provide a sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the ESR corrector magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.02.01
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund cable installation from the power supply to the magnets by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.02.02
6.04.03.02
The Power Supply Group shall purchase the cables that go from the Power Supply to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.02.03
6.04.03.02
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet terminals and power supply ends.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.02.04
6.04.03.02
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.02.05
6.04.03.02
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.02.06
6.04.03.02
The Magnet Group shall provide a terminal block with standard polarity labels to facilitate installation of the main winding magnet power cables from the Accelerator Installation WBS CAM.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.02.07
6.04.03.02
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.03.01
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.03.02
6.04.03.02
The Power Supply Group shall purchase the cables that go from the thermal switch on the magnet to the Power Supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.03.03
6.04.03.02
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.03.04
6.04.03.02
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.03.05
6.04.03.02
The Magnet Group shall provide the terminal block with labeling to facilitate installation of the connection for thermal protection.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.03.06
6.04.03.02
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.04.01
6.04.03.02
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.04.02
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing the beampipe through the magnets and installing the magnets by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.04.03
6.04.03.02
The Vacuum Group will provide temporary thermal couples to the magnets for beamline bakeout. The magnet and coil temperature shall not exceed 150 degrees F during beamline bakeout.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.04.04
6.04.03.02
The Magnet Group shall provide analysis of potential thermally conductive paths between the magnet and beampipe.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.05.01
6.04.03.02
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.05.02
6.04.03.02
The BNL Magnet Group shall procure the girders for the Accelerator Installation WBS CAM to install.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.05.03
6.04.03.02
The Survey Group shall fiducialize the magnet based on magnetic center after they have been installed onto the girder.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.05.04
6.04.03.02
The Magnet Group shall provide magnet design CAD models to the Mechanical Design Group to facilitate the design of the magnet girder.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.05.05
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing the final assembled magnet girder to the tunnel by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.06.01
6.04.03.02
The Mechanical Design Group shall model the tunnel to define the required spacial location of the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.06.02
6.04.03.02
The Survey Group will provide the arrangement location for the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-THLA:60a.06.03
6.04.03.02
The Magnet Group shall provide analysis and approval of the magnet installations and potential interferences to the Mechanical Design Group.
01/08/2026
Not Applicable
FALSE

ESR-MAG-TVLA:60a

R-ESR-MAG-TVLA:60a.01.01
6.04.03.02
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the ESR Correctors.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.01.02
6.04.03.02
The Infrastructure group shall provide a sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the ESR corrector magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.02.01
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund cable installation from the power supply to the magnets by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.02.02
6.04.03.02
The Power Supply Group shall purchase the cables that go from the Power Supply to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.02.03
6.04.03.02
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet terminals and power supply ends.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.02.04
6.04.03.02
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.02.05
6.04.03.02
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.02.06
6.04.03.02
The Magnet Group shall provide a terminal block with standard polarity labels to facilitate installation of the main winding magnet power cables from the Accelerator Installation WBS CAM.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.02.07
6.04.03.02
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.03.01
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.03.02
6.04.03.02
The Power Supply Group shall purchase the cables that go from the thermal switch on the magnet to the Power Supply.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.03.03
6.04.03.02
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.03.04
6.04.03.02
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s).
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.03.05
6.04.03.02
The Magnet Group shall provide the terminal block with labeling to facilitate installation of the connection for thermal protection.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.03.06
6.04.03.02
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.04.01
6.04.03.02
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.04.02
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing the beampipe through the magnets and installing the magnets by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.04.03
6.04.03.02
The Vacuum Group will provide temporary thermal couples to the magnets for beamline bakeout. The magnet and coil temperature shall not exceed 150 degrees F during beamline bakeout.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.04.04
6.04.03.02
The Magnet Group shall provide analysis of potential thermally conductive paths between the magnet and beampipe.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.05.01
6.04.03.02
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.05.02
6.04.03.02
The BNL Magnet Group shall procure the girders for the Accelerator Installation WBS CAM to install.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.05.03
6.04.03.02
The Survey Group shall fiducialize the magnet based on magnetic center after they have been installed onto the girder.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.05.04
6.04.03.02
The Magnet Group shall provide magnet design CAD models to the Mechanical Design Group to facilitate the design of the magnet girder.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.05.05
6.04.03.02
The Accelerator Installation WBS CAM shall schedule and fund installing the final assembled magnet girder to the tunnel by the appropriate technical support group.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.06.01
6.04.03.02
The Mechanical Design Group shall model the tunnel to define the required spacial location of the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.06.02
6.04.03.02
The Survey Group will provide the arrangement location for the magnets and girders.
01/08/2026
Not Applicable
FALSE

R-ESR-MAG-TVLA:60a.06.03
6.04.03.02
The Magnet Group shall provide analysis and approval of the magnet installations and potential interferences to the Mechanical Design Group.
01/08/2026
Not Applicable
FALSE

ESR-PS : ESR Magnet Power Supply (WBS 6.04.04)

ESR-PS-D : ESR Main Dipole Magnet (D) Power Supply

P-ESR-PS-D.01
6.02.02.04
The magnet model being powered is esr-td:380, esr-td:273, esr-td:89 and esr-td:550.
02/09/2026
Approved
FALSE

P-ESR-PS-D.02
6.02.02.04
The main dipole power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-D.03.01
6.02.02.04
The main dipole power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 1600 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-D.03.02
6.02.02.04
The main dipole power supply during a fault condition shall limit the maximum voltage of the magnet-to-ground to less than 2500 (V) for a period of 1 minute. The magnet should have sufficient design margin for this level of voltage:
02/09/2026
Approved
FALSE

P-ESR-PS-D.04.01
6.02.02.04
The main dipole power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-D.06
6.02.02.04
The main dipole power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-D.07
6.02.02.04
The main dipole power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-D.08.01
6.02.02.04
The main dipole power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Not Applicable
FALSE

P-ESR-PS-D.08.02
6.02.02.04
The main dipole power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-D.09.01
6.02.02.04
The main dipole power supply shall limit current ripple (RMS) to 10 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-D.09.03
6.02.02.04
The main dipole power supply shall limit ripple to 1000 (ppm) in the 1 k(Hz)–8 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-D.09.04
6.02.02.04
The main dipole power supply shall limit ripple in the 8 k(Hz)–40 k(Hz) range per the specified by figure in P-ESR-PS-main dipole.09.04.01.
02/09/2026
Approved
FALSE

P-ESR-PS-D.09.04.01
6.02.02.04
nan
02/09/2026
Approved
FALSE

P-ESR-PS-D.09.05
6.02.02.04
The main dipole power supply shall have a tunable switching frequency over a tuning range of +/- 500 (Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-D.10
6.02.02.04
The main dipole rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-D.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TD:89.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.07.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.07.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.07.03
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TD:273.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.08.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.08.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.08.03
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TD:380.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.09.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.09.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.09.03
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TD:550.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.10.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.10.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.10.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.11.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.11.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.12.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.12.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-D.12.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-Q:120 : ESR Quadrupole Magnet (Q:120) Power Supply

P-ESR-PS-Q:120.01
6.02.02.04
The magnet model being powered is esr-q:120.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.02
6.02.02.04
The Q:120 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.03.01
6.02.02.04
The Q:120 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.04.01
6.02.02.04
The Q:120 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.04.02
6.02.02.04
The QL:120 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.05.02
6.02.02.04
The Q:120 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.06
6.02.02.04
The Q:120 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.07
6.02.02.04
The Q:120 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.08.01
6.02.02.04
The Q:120 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.08.02
6.02.02.04
The Q:120 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.09.01
6.02.02.04
The Q:120 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.09.02
6.02.02.04
The Q:120 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:120.10
6.02.02.04
The Q:120 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-Q:120.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-Q:120.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:120.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-Q:50 : ESR Quadrupole Magnet (Q:50) Power Supply

P-ESR-PS-Q:50.01
6.02.02.04
The magnet model being powered is esr-q:50.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.02
6.02.02.04
The Q:50 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.03.01
6.02.02.04
The Q:50 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.04.01
6.02.02.04
The Q:50 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.04.02
6.02.02.04
The Q:50 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.05.02
6.02.02.04
The Q:50 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.06
6.02.02.04
The Q:50 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.07
6.02.02.04
The Q:50 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.08.01
6.02.02.04
The Q:50 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.08.02
6.02.02.04
The Q:50 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.09.01
6.02.02.04
The Q:50 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.09.02
6.02.02.04
The Q:500 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:50.10
6.02.02.04
The Q:50 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-Q:50.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-Q:50.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:50.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-Q:60 : ESR Quadrupole Magnet (Q:60) Power Supply

P-ESR-PS-Q:60.01
6.02.02.04
The magnet model being powered is esr-q:60.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.02
6.02.02.04
The Q:60 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.03.01
6.02.02.04
The Q:60 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.04.01
6.02.02.04
The Q:60 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.04.02
6.02.02.04
The Q:60 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.05.02
6.02.02.04
The Q:60 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.06
6.02.02.04
The Q:60 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.07
6.02.02.04
The Q:60 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.08.01
6.02.02.04
The Q:60 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.08.02
6.02.02.04
The Q:60 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.09.01
6.02.02.04
The Q:60 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.09.02
6.02.02.04
The Q:60 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:60.10
6.02.02.04
The Q:60 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-Q:60.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-Q:60.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:60.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-Q:80 : ESR Quadrupole Magnet (Q:80) Power Supply

P-ESR-PS-Q:80.01
6.02.02.04
The magnet model being powered is esr-q:80.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.02
6.02.02.04
The Q:80 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.03.01
6.02.02.04
The Q:80 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.04.01
6.02.02.04
The Q:80 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.04.02
6.02.02.04
The Q:80 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.05.02
6.02.02.04
The Q:80 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.06
6.02.02.04
The Q:80 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.07
6.02.02.04
The Q:80 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.08.01
6.02.02.04
The Q:80 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.08.02
6.02.02.04
The Q:80 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.09.01
6.02.02.04
The Q:80 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.09.02
6.02.02.04
The Q:80 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-Q:80.10
6.02.02.04
The Q:80 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-Q:80.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-Q:80.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-Q:80.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QLA:120 : ESR Quadrupole Magnet (QLA:120) Power Supply

P-ESR-PS-QLA:120.01
6.02.02.04
The magnet model being powered is esr-qla:120.
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.02
6.02.02.04
The QLA:120 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.03.01
6.02.02.04
The QLA:120 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.04.01
6.02.02.04
The QLA:120 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.04.02
6.02.02.04
The QLA:120 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.05.02
6.02.02.04
The QLA:120 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.06
6.02.02.04
The QLA:120 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.07
6.02.02.04
The QLA:120 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.08.01
6.02.02.04
The QLA:120 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.08.02
6.02.02.04
The QLA:120 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.09.01
6.02.02.04
The QLA:120 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.09.02
6.02.02.04
The QLA:120 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QLA:120.10
6.02.02.04
The QLA:120 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QLA:120.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QLA:120.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QLA:120.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QN:80 : ESR Narrow Quadrupole Magnet (QN:80) Power Supply

P-ESR-PS-QN:80.01
6.02.02.04
The magnet model being powered is esr-q:80.
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.02
6.02.02.04
The Q:80 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.03.01
6.02.02.04
The Q:80 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.04.01
6.02.02.04
The QN:80 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.04.02
6.02.02.04
The QN:80 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.05.02
6.02.02.04
The QN:80 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.06
6.02.02.04
The QN:80 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.07
6.02.02.04
The QN:80 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.08.01
6.02.02.04
The QN:80 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.08.02
6.02.02.04
The Q:80 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.09.01
6.02.02.04
The Q:80 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.09.02
6.02.02.04
The Q:80 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QN:80.10
6.02.02.04
The Q:80 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QN:80.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QN:80.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QN:80.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QROT:114 : ESR Quadrupole Spin Rotator Magnet (QROT:114) Power Supply

P-ESR-PS-QROT:114.01
6.02.02.04
The magnet model being powered is esr-qrot:114.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.02
6.02.02.04
The QROT:114 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.03.01
6.02.02.04
The QROT:114 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.04.01
6.02.02.04
The QROT:114 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.04.02
6.02.02.04
The QROT:114 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.05.02
6.02.02.04
The QROT:114 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.06
6.02.02.04
The QROT:114 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.07
6.02.02.04
The QROT:114 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.08.01
6.02.02.04
The QROT:114 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.08.02
6.02.02.04
The QROT:114 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.09.01
6.02.02.04
The QROT:114 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.09.02
6.02.02.04
The QROT:114 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:114.10
6.02.02.04
The QROT:114 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QROT:114.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QROT:114.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:114.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QROT:122 : ESR Quadrupole Spin Rotator Magnet (QROT:122) Power Supply

P-ESR-PS-QROT:122.01
6.02.02.04
The magnet model being powered is esr-qrot:122.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.02
6.02.02.04
The QROT:122 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.03.01
6.02.02.04
The QROT:122 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.04.01
6.02.02.04
The QROT:122 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.04.02
6.02.02.04
The QROT:122 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.05.02
6.02.02.04
The QROT:122 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.06
6.02.02.04
The QROT:122 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.07
6.02.02.04
The QROT:122 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.08.01
6.02.02.04
The QROT:122 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.08.02
6.02.02.04
The QROT:122 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.09.01
6.02.02.04
The QROT:122 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.09.02
6.02.02.04
The QROT:122 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:122.10
6.02.02.04
The QROT:122 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QROT:122.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QROT:122.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:122.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QROT:138 : ESR Quadrupole Spin Rotator Magnet (QROT:138) Power Supply

P-ESR-PS-QROT:138.01
6.02.02.04
The magnet model being powered is esr-qrot:138.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.02
6.02.02.04
The QROT:138 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.03.01
6.02.02.04
The QROT:138 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.04.01
6.02.02.04
The QROT:138 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.04.02
6.02.02.04
The QROT:138 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.05.02
6.02.02.04
The QROT:138 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.06
6.02.02.04
The QROT:138 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.07
6.02.02.04
The QROT:138 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.08.01
6.02.02.04
The QROT:138 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.08.02
6.02.02.04
The QROT:138 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.09.01
6.02.02.04
The QROT:138 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.09.02
6.02.02.04
The QROT:138 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:138.10
6.02.02.04
The QROT:138 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QROT:138.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QROT:138.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:138.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QROT:188 : ESR Quadrupole Spin Rotator Magnet (QROT:188) Power Supply

P-ESR-PS-QROT:188.01
6.02.02.04
The magnet model being powered is esr-qrot:188.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.02
6.02.02.04
The QROT:188 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.03.01
6.02.02.04
The QROT:188 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.04.01
6.02.02.04
The QROT:188 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.04.02
6.02.02.04
The QROT:188 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.05.02
6.02.02.04
The QROT:188 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.06
6.02.02.04
The QROT:188 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.07
6.02.02.04
The QROT:188 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.08.01
6.02.02.04
The QROT:188 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.08.02
6.02.02.04
The QROT:188 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.09.01
6.02.02.04
The QROT:188 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.09.02
6.02.02.04
The QROT:188 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:188.10
6.02.02.04
The QROT:188 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QROT:188.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QROT:188.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:188.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QROT:197 : ESR Quadrupole Spin Rotator Magnet (QROT:197) Power Supply

P-ESR-PS-QROT:197.01
6.02.02.04
The magnet model being powered is esr-qrot:197.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.02
6.02.02.04
The QROT:197 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.03.01
6.02.02.04
The QROT:197 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.04.01
6.02.02.04
The QROT:197 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.04.02
6.02.02.04
The QROT:197 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.05.02
6.02.02.04
The QROT:197 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.06
6.02.02.04
The QROT:197 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.07
6.02.02.04
The QROT:197 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.08.01
6.02.02.04
The QROT:197 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.08.02
6.02.02.04
The QROT:197 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.09.01
6.02.02.04
The QROT:197 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.09.02
6.02.02.04
The QROT:197 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:197.10
6.02.02.04
The QROT:197 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QROT:197.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QROT:197.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:197.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QROT:87 : ESR Quadrupole Spin Rotator Magnet (QROT:87) Power Supply

P-ESR-PS-QROT:87.01
6.02.02.04
The magnet model being powered is esr-qrot:87.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.02
6.02.02.04
The QROT:87 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.03.01
6.02.02.04
The QROT:87 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.04.01
6.02.02.04
The QROT:87 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.04.02
6.02.02.04
The QROT:87 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.05.02
6.02.02.04
The QROT:87 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.06
6.02.02.04
The QROT:87 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.07
6.02.02.04
The QROT:87 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.08.01
6.02.02.04
The QROT:87 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.08.02
6.02.02.04
The QROT:87 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.09.01
6.02.02.04
The QROT:87 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.09.02
6.02.02.04
The QROT:87 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QROT:87.10
6.02.02.04
The QROT:87 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QROT:87.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QROT:87.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QROT:87.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-QS:25 : ESR Quadrupole Magnet (QS:25) Power Supply

P-ESR-PS-QS:25.01
6.02.02.04
The magnet model being powered is esr-qs:25.
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.02
6.02.02.04
The QS:25 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.03.01
6.02.02.04
The QS:25 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.04.01
6.02.02.04
The QS:25 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.04.02
6.02.02.04
The QS:25 power supply for all series connected Quadrupoles BBA will be achieved by a circuit connected across each quad magnet that will divert a percentage of the operational current defined in the technical magnet documentation. [BNL-228833-2025-TECH and EIC-ADD-TN-134]
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.05.02
6.02.02.04
The QS:25 power supply for individually powered quadrupoles shall be able to transition from 95% of its operational current to its operational current at 1 (Hz) without exceeding the operational setpoint current for beam-based alignment.
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.06
6.02.02.04
The QS:25 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 10 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.07
6.02.02.04
The QS:25 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.08.01
6.02.02.04
The QS:25 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.08.02
6.02.02.04
The QS:25 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.09.01
6.02.02.04
The QS:25 power supply shall limit current ripple (RMS) to 15 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.09.02
6.02.02.04
The QS:25 power supply shall limit current ripple (RMS) to 500 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-QS:25.10
6.02.02.04
The QS:25 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-QS:25.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-QS:25.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-QS:25.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-SX24

P-ESR-PS-SX24.01
6.02.02.04
The magnet model being powered is esr-sx:24.
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.02
6.02.02.04
The SX:24 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.03.01
6.02.02.04
The SX:24 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.04.01
6.02.02.04
The SX:24 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.06
6.02.02.04
The SX:24 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 100 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.07
6.02.02.04
The SX:24 power supply shall provide a minimal current setpoint resolution of 16 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.08.01
6.02.02.04
The SX:24 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.08.02
6.02.02.04
The SX:24 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.09.01
6.02.02.04
The SX:24 power supply shall limit current ripple (RMS) to 40 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.09.02
6.02.02.04
The SX:24 power supply shall limit current ripple (RMS) to 10000 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-SX24.10
6.02.02.04
The SX:24 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 1.7 (C).
02/09/2026
Approved
FALSE

ESR-PS-SX:24 : ESR Sextupole Magnet (SX:57) Power Supply

R-ESR-PS-SX:24.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including allocated space for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel . (I-ESR-MAG-SX:24.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:24.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-SX:57 : ESR Sextupole Magnet (SX:114) Power Supply

P-ESR-PS-SX:57.01
6.02.02.04
The magnet model being powered is esr-sx:57.
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.02
6.02.02.04
The SX:57 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.03.01
6.02.02.04
The SX:57 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.04.01
6.02.02.04
The SX:57 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.06
6.02.02.04
The SX:57 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 100 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.07
6.02.02.04
The SX:57 power supply shall provide a minimal current setpoint resolution of 16 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.08.01
6.02.02.04
The SX:57 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.08.02
6.02.02.04
The SX:57 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.09.01
6.02.02.04
The SX:57 power supply shall limit current ripple (RMS) to 40 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.09.02
6.02.02.04
The SX:57 power supply shall limit current ripple (RMS) to 10000 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-SX:57.10
6.02.02.04
The SX:57 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 1.7 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-SX:57.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-SX:57.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-SX:57.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-TD:273 : ESR Dipole Magnet (TD:273) Power Supply

P-ESR-PS-TD:273.01
6.02.02.04
The magnet model being powered is esr-td:273.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.02
6.02.02.04
The TD:273 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.03.01
6.02.02.04
The TD:273 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 1600 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.04.01
6.02.02.04
The TD:273 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.06
6.02.02.04
The TD:273 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 50 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.07
6.02.02.04
The TD:273 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.08.02
6.02.02.04
The TD:237 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.09.01
6.02.02.04
The TD:273 power supply shall limit current ripple (RMS) to 10 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.09.03
6.02.02.04
The TD:273 power supply shall limit ripple to 1000 (ppm) in the 1 k(Hz)–8 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.09.04
6.02.02.04
The TD:273 power supply shall limit ripple in the 8 k(Hz)–40 k(Hz) range per the specified by figure in P-ESR-PS-TD:273.09.04.01.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.09.04.01
6.02.02.04
nan
02/09/2026
Approved
FALSE

P-ESR-PS-TD:273.10
6.02.02.04
The TD:237 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-TD:273.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TD:273.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:273.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-TD:380 : ESR Dipole Magnet (TD:380) Power Supply

P-ESR-PS-TD:380.01
6.02.02.04
The magnet model being powered is esr-td:380.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.02
6.02.02.04
The TD:380 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.03.01
6.02.02.04
The TD:380 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 1600 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.04.01
6.02.02.04
The TD:380 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.06
6.02.02.04
The TD:380 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 50 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.07
6.02.02.04
The TD:380 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.08.02
6.02.02.04
The TD:380 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.09.01
6.02.02.04
The TD:380 power supply shall limit current ripple (RMS) to 10 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.09.03
6.02.02.04
The TD:380 power supply shall limit ripple to 1000 (ppm) in the 1 k(Hz)–8 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.09.04
6.02.02.04
The TD:380 power supply shall limit ripple in the 8 k(Hz)–40 k(Hz) range per the specified by figure in P-ESR-PS-TD:380.09.04.01.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.09.04.01
6.02.02.04
nan
02/09/2026
Approved
FALSE

P-ESR-PS-TD:380.10
6.02.02.04
The TD:380 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-TD:380.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.06.04
6.02.02.04
Reference related magnet interface document for Electrical Power interface details inside of tunnel. (I-ESR-MAG-TD:380.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:380.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-TD:550 : ESR Dipole Magnet (TD:550) Power Supply

P-ESR-PS-TD:550.01
6.02.02.04
The magnet model being powered is esr-td:550.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.02
6.02.02.04
The TD:550 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.03.01
6.02.02.04
The TD:550 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 1600 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.04.01
6.02.02.04
The TD:550 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.06
6.02.02.04
The TD:550 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 50 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.07
6.02.02.04
The TD:550 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.08.02
6.02.02.04
The TD:550 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.09.01
6.02.02.04
The TD:550 power supply shall limit current ripple (RMS) to 10 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.09.03
6.02.02.04
The TD:550 power supply shall limit ripple to 1000 (ppm) in the 1 k(Hz)–8 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.09.04
6.02.02.04
The TD:550 power supply shall limit ripple in the 8 k(Hz)–40 k(Hz) range per the specified by figure in P-ESR-PS-TD:550.09.04.01.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.09.04.01
6.02.02.04
nan
02/09/2026
Approved
FALSE

P-ESR-PS-TD:550.10
6.02.02.04
The TD:550 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-TD:550.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.06.04
6.02.02.04
Reference related magnet interface document for Electrical Power interface details inside of tunnel. (I-ESR-MAG-TD:550.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:550.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-TD:89 : ESR Dipole Magnet (TD:89) Power Supply

P-ESR-PS-TD:89.01
6.02.02.04
The magnet model being powered is esr-td:89.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.02
6.02.02.04
The TD:89 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.03.01
6.02.02.04
The TD:89 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 1600 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.04.01
6.02.02.04
The TD:89 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.06
6.02.02.04
The TD:89 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 50 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.07
6.02.02.04
The TD:89 power supply shall provide a minimal current setpoint resolution of 18 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.08.02
6.02.02.04
The TD:89 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.09.01
6.02.02.04
The TD:89 power supply shall limit current ripple (RMS) to 10 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.09.03
6.02.02.04
The TD:89 power supply shall limit ripple to 1000 (ppm) in the 1 k(Hz)–8 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.09.04
6.02.02.04
The TD:89 power supply shall limit ripple in the 8 k(Hz)–40 k(Hz) range per the specified by figure in P-ESR-PS-TD:89.09.04.01.
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.09.04.01
6.02.02.04
nan
02/09/2026
Approved
FALSE

P-ESR-PS-TD:89.10
6.02.02.04
The TD:89 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 0.3 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-TD:89.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TD:89.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TD:89.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-TH:20 : ESR Corrector Magnet (TH:20) Power Supply

P-ESR-PS-TH:20.01
6.02.02.04
The magnet model being powered is esr-th:20.
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.02
6.02.02.04
The TH:20 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.03.01
6.02.02.04
The TH:20 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.04.01
6.02.02.04
The TH:20 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.05.01
6.02.02.04
The TH:20 power supply shall be capable of compensating slow orbit motion with a 1/f spectrum, the required magnet current to be equivalent to +/- 5mA at 10 Hz
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.06
6.02.02.04
The TH:20 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 100 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.07
6.02.02.04
The TH:20 power supply shall provide a minimal current setpoint resolution of 16 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.08.01
6.02.02.04
The TH:20 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.08.02
6.02.02.04
The TH:20 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.09.01
6.02.02.04
The TH:20 power supply shall limit current ripple (RMS) to 100 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.09.02
6.02.02.04
The TH:20 power supply shall limit current ripple (RMS) to 10000 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-TH:20.10
6.02.02.04
The TH:20 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 1.7 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-TH:20.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TH:20.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TH:20.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-THLA:60

P-ESR-PS-THLA:60.01
6.02.02.04
The magnet model being powered is esr-thla:60.
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.02
6.02.02.04
The THLA:60 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.03.01
6.02.02.04
The THLA:60 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.04.01
6.02.02.04
The THLA:60 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.05.01
6.02.02.04
The THLA:60 power supply shall be capable of compensating slow orbit motion with a 1/f spectrum, the required magnet current to be equivalent to +/- 5mA at 10 Hz
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.06
6.02.02.04
The THLA:60 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 100 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.07
6.02.02.04
The THLA:60 power supply shall provide a minimal current setpoint resolution of 16 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.08.01
6.02.02.04
The THLA:60 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.08.02
6.02.02.04
The THLA:60 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.09.01
6.02.02.04
The THLA:60 power supply shall limit current ripple (RMS) to 100 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.09.02
6.02.02.04
The THLA:60 power supply shall limit current ripple (RMS) to 10000 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-THLA:60.10
6.02.02.04
The THLA:60 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 1.7 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-THLA:60.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-THLA:60.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-THLA:60.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-TV:20 : ESR Corrector Magnet (TV:20) Power Supply

P-ESR-PS-TV:20.01
6.02.02.04
The magnet model being powered is esr-tv:20.
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.02
6.02.02.04
The TV:20 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.03.01
6.02.02.04
The TV:20 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.04.01
6.02.02.04
The TV:20 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.05.01
6.02.02.04
The TV:20 power supply shall be capable of compensating slow orbit motion with a 1/f spectrum, the required magnet current to be equivalent to +/- 5mA at 10 Hz
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.06
6.02.02.04
The TV:20 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 100 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.07
6.02.02.04
The TV:20 power supply shall provide a minimal current setpoint resolution of 16 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.08.01
6.02.02.04
The TV:20 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.08.02
6.02.02.04
The TV:20 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.09.01
6.02.02.04
The TV:20 power supply shall limit current ripple (RMS) to 100 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.09.02
6.02.02.04
The TV:20 power supply shall limit current ripple (RMS) to 10000 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-TV:20.10
6.02.02.04
The TV:20 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 1.7 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-TV:20.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TV:20.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TV:20.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-PS-TVLA:60

P-ESR-PS-TVLA:60.01
6.02.02.04
The magnet model being powered is esr-tvla:60.
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.02
6.02.02.04
The TVLA:60 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [Document#: EIC-SEG-RSI-110]
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.03.01
6.02.02.04
The TVLA:60 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.04.01
6.02.02.04
The TVLA:60 power supply shall provide a DC current.
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.05.01
6.02.02.04
The TVLA:60 power supply shall be capable of compensating slow orbit motion with a 1/f spectrum, the required magnet current to be equivalent to +/- 5mA at 10 Hz
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.06
6.02.02.04
The TVLA:60 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 100 (ppm).
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.07
6.02.02.04
The TVLA:60 power supply shall provide a minimal current setpoint resolution of 16 (Bit).
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.08.01
6.02.02.04
The TVLA:60 power supply synchronization timing of synchronization shall be 100 (us).
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.08.02
6.02.02.04
The TVLA:60 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.09.01
6.02.02.04
The TVLA:60 power supply shall limit current ripple (RMS) to 100 (ppm) of full-scale current in the 0–1 k(Hz) range.
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.09.02
6.02.02.04
The TVLA:60 power supply shall limit current ripple (RMS) to 10000 (ppm) of full scale current greater than 1k(Hz).
02/09/2026
Approved
FALSE

P-ESR-PS-TVLA:60.10
6.02.02.04
The TVLA:60 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9 (C) +/- 1.7 (C).
02/09/2026
Approved
FALSE

R-ESR-PS-TVLA:60.01.01
6.02.02.04
Power Supply Group shall provide design details that defines the building, rack layouts and power and low conductivity water utility requirements for power supplies and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.01.02
6.02.02.04
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.01.03
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.01.04
6.02.02.04
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the power supplies and its subcomponents which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.01.05
6.02.02.04
Infrastructure Group shall provide indoor enviromental control for the power supply buildings which satisfies the power supply equipment operating parameters.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.02.01
6.02.02.04
Power Supply Group shall provide the power supply rack and its subsystems design, including the spatial location, thermal and weight details.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.02.02
6.02.02.04
Power Supply Group shall provide the plan and funding for the procurement of the racks to house power supplies and its sub components which satisfies power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.02.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling to move and install power supply racks by the appropriate technical support group and its subsystems which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.02.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of power supplies into the racks by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.03.01
6.02.02.04
Power Supply Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each power supply rack and the freestanding equipment.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.03.02
6.02.02.04
ASR System Installation and Final Integration shall provide design, funding and scheduling for installation of the AC cable tray and AC cable from the wall mount distribution to each power supply rack and the freestanding equipment, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.04.01
6.02.02.04
Power Supply Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.04.02
6.02.02.04
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.04.03
6.02.02.04
Infustructure mechanical cooling shall provide the LCW piping design and procurement of materials from the wall distribution to connections to the power supply DC Busses which satisfies the power supply group design, including waterflow switches and one contact per switch.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.04.04
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each power supply DC Buss by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.05.01
6.02.02.04
Power Supply Group shall provide the design and funding for procurement for each power supply UPS, including AC cable distribution from the wall mount distribution to each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.05.02
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable distribution by the appropriate technical support group which satisfies the power supply group design into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.05.03
6.02.02.04
Power Supply Group shall shall provide funding and scheduling for the installation of UPS by the appropriate technical support group into each power supply rack.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.06.01
6.02.02.04
Power Supply Group shall provide the design details defining the DC power cable routing from the power supply and its associated subsystems into the tunnels.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.06.02
6.02.02.04
Infrastructure group shall provide tunnel penetrations for DC cable and bus work which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.06.03
6.02.02.04
ASR System Installation and Final Integration shall provide funding and scheduling for installation of the AC cable from the each power supply in the building to its corresponding magnet, including termination by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.06.04
6.02.02.04
Reference related magnet interface document for magnet electrical power interface details related to the connection inside of tunnel. (I-ESR-MAG-TVLA:60.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.07.01
6.02.02.04
Power Supply Group shall provide an "ON" status output through the MPS interface which satisfies MPS design.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.07.02
6.02.02.04
Power Supply Group shall define the design and location of the magnet interlock PLCs for normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.07.03
6.02.02.04
Reference related controls interface document for the Machine protection interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.08.01
6.02.02.04
Power Supply Group shall provide personal protection system interlock interface and connection pinouts.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.08.02
6.02.02.04
Reference related Personnel Protection System (PSS) interface document for the PSS interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.09.01
6.02.02.04
Power Supply Group shall provide the zPSCs for all EIC Power Supplies.
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.09.02
6.02.02.04
Power Supply Group shall provide the magnet interlock PLCs and Modbus for all EIC normal conducting magnet(s).
01/08/2026
Reviewed
FALSE

R-ESR-PS-TVLA:60.09.03
6.02.02.04
Reference related controls interface document for Controls interface details. (I-ESR-CNTRL-XXX.XXX)
01/08/2026
Reviewed
FALSE

ESR-VAC : ESR Vacuum (WBS 6.04.05)

P-ESR-VAC.04
6.02.02.06
The stray field From any Vacuum equipment on the ESR beam shall have no adverse effect on the beam.
02/09/2026
Approved
FALSE

P-ESR-VAC.05
6.02.02.06
The magnetic permeability for vacuum equipment shall be approved by beam physics.
02/09/2026
Approved
FALSE

P-ESR-VAC.09
6.02.02.06
All hardware in vacuum shall be UHV compatible.
02/09/2026
Approved
FALSE

ESR-VAC EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-VAC.01
6.02.02
The ESR vacuum chamber shall provide sufficient horizontal and vertical aperture to accommodate; a +/-15 sigma beam, where the vertical RMS beam size is based on the emittance of a fully coupled beam, plus an additional 10 mm horizontal and 5 mm vertical margin to account for expected orbit errors.
02/09/2026
Approved
FALSE

P-ESR-VAC.02
6.02.02.06
The typical (standard) vacuum chamber aperture shall be 80 x 36 mm.
02/09/2026
Approved
FALSE

P-ESR-VAC.03
6.02.02.06
Special aperture requirements and/or aperture file shall be provided by or approved by physics.
02/09/2026
Approved
FALSE

F-ESR-VAC.02
6.02.02
The dynamic pressure around the ESR shall be consistent with a beam gas lifetime of >10[hrs] with the design currents after an integrated beam current of 1000 [A.h].
02/09/2026
Approved
FALSE

P-ESR-VAC.07
6.02.02.06
There shall be no upper pressure limit as long as the average pressure is maintained.
02/09/2026
Approved
FALSE

P-ESR-VAC.06
6.02.02.06
The average vacuum level in the ESR Arc sections after conditioning (for 1000Ahrs) shall be <5x10-9 Torr.
02/09/2026
Approved
FALSE

P-ESR-VAC.08
6.02.02.06
On 15 m on each side (or one vacuum sector) of the SRF cavities shall be processed to class ISO 5.
02/09/2026
Approved
FALSE

F-ESR-VAC.03
6.02.02
There shall be no pressure bumps in the ESR exceeding (TBD)[Torr]
02/09/2026
Approved
FALSE

F-ESR-VAC.04
6.02.02
The ESR vacuum chamber and all its components shall be designed to withstand a total synchrotron radiation load of 10 MW, considering the uneven linear load particularly related to the super-bends.
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR-VAC.05
6.02.02
The ESR vacuum chamber material shall be chosen such that the SR power can be intercepted by the arc chambers and in addition good radiation shielding will be provided to prevent damage to other components.
02/09/2026
Approved
FALSE

P-ESR-VAC.11
6.02.02.06
The vacuum chamber shall be able to absorb synchrotron radiation and carry away 10 MW of power.
02/09/2026
Approved
FALSE

F-ESR-VAC.06
6.04.05
The impedance of the entire ESR vacuum system, including the interaction regions in IR06 and IR08, shall allow for the bunch intensities, beam currents, and bunch numbers contained in the Master Parameter Table (MPT). [Document#:EIC-SEG-RSI-005]
05/16/2025
Approved
FALSE

P-ESR-VAC.01
6.02.02.06
The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.
02/09/2026
Approved
FALSE

P-ESR-VAC.10
6.02.02.06
The maximum beam excursion orbit shall be TBD
02/09/2026
In Process
FALSE

ESR-INST : ESR Instrumentation System (WBS 6.04.06)

ESR-INST EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-INST.01
6.02.02
The ESR instrumentation system shall include dual-plane Beam Position Monitors (BPMs) adjacent to each vertically focusing quadrupole. Provisions shall be made in the vacuum chamber design to install additional dual-plane BPMs at the horizontally focusing quadrupoles, if needed.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.01
6.02.02.05.01.02
The ESR beam position monitor pick-up shall provide dual plane (horizontal and vertical) beam positional measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.10
6.02.02.05.01.02
The roll angle error of the ESR BPM pickup, given as the horizontal measurement plane defined by the BPM fiducials witrh respect to. the horizontal plane of the ESR ring shall be less than +/- 20 (mrad).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05
6.02.02.05.01.02
The ESR BPM system shall fulfill resolution and accuracy requirements over the following two defined transverse beam position ranges with respect vacuum chamber center, referenced to the mechanical fiducials on the BPM pickups.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.13
6.02.02.05.01.02
The beam position monitor pick-up assembly shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

F-ESR-INST.02
6.02.02
The ESR BPMs shall have turn-by-turn orbit measurement capability based on a single, remotely selectable bunch out of the fully filled bunch train to enable injection optimization.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-ELEC.01
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following capabilities defined for the low intensity pilot injection energies and high intensity collision energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following time resolutions for data refresh defined for the beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.03
6.02.02.05.01.01
The ESR BPM Electronics shall have the following time resolutions for data logging defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04
6.02.02.05.01.01
The ESR BPM Electronics shall have the following measurement resolutions defined for beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.05
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.06
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate in an ambient temperature degree from X (C) to X (C).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-PU.01
6.02.02.05.01.02
The ESR beam position monitor pick-up shall provide dual plane (horizontal and vertical) beam positional measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.10
6.02.02.05.01.02
The roll angle error of the ESR BPM pickup, given as the horizontal measurement plane defined by the BPM fiducials witrh respect to. the horizontal plane of the ESR ring shall be less than +/- 20 (mrad).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05
6.02.02.05.01.02
The ESR BPM system shall fulfill resolution and accuracy requirements over the following two defined transverse beam position ranges with respect vacuum chamber center, referenced to the mechanical fiducials on the BPM pickups.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.13
6.02.02.05.01.02
The beam position monitor pick-up assembly shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

F-ESR-INST.03
6.02.02
The ESR instrumentation system shall include a beam current monitor to measure average beam current.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.01
6.02.02.05.03
The ESR DC Current Transformer shall have the ability to measure the average beam current over a range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.02
6.02.02.05.03
The ESR DC Current Transformer shall provide an average current measurement with a resolution of less than 5 (uA /√Hz).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.03
6.02.02.05.03
The ESR DC Current Transformer measurement drift tolerance shall be less than 10 (uA) over 1 (hr).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.04
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy of better than +/- 1 (%) at 250 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.05
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy between the range of 250 (mA) to 2.5 (A) at +/- 0.5 (%).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.07
6.02.02.05.03
The ESR DC Current Transformer system shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.10
6.02.02.05.03
The ESR DC Current Transformer Calibration system shall be capable of providing an equivalent ESR DC current over the full operating range within 0.25% over the beam current range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.09
6.02.02.05.03
The ESR DC Current Transformer system shall have a remote controlled self calibration system
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.11
6.02.02.05.03
The ESR DC Current Transformer measured average current shall be archived at a rate of 1 Hz
02/09/2026
Approved
FALSE

F-ESR-INST.04
6.02.02
The ESR instrumentation system shall include a system to measure individual bunch charges and bunch pattern.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.01
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring bunch patterns ranging from a single bunch, to a filled ring with 1,160 bunches.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.02
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring witness bunch for 1/e for a fixed gain over the beam lifetime.
02/09/2026
Approved
FALSE

F-ESR-INST.05
6.02.02
The ESR instrumentation system shall include a system to measure transverse beam profiles.
02/09/2026
Approved
FALSE

P-ESR-INST-TRANSFB.02
6.02.02.05.05.01
The transverse feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSFB.01
6.02.02.05.05.01
Placeholder, Input needed TBD
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSFB.03
6.02.02.05.05.01
Placeholder, Input needed TBD
02/09/2026
In Process
FALSE

F-ESR-INST.06
6.02.02
The ESR instrumentation system shall include a system to measure longitudinal beam profiles.
02/09/2026
Approved
FALSE

P-ESR-INST-LONGIFB.01
6.02.02.05.05.02
The requirements for longitudinal feedback are ??? TBD
02/09/2026
In Process
FALSE

P-ESR-INST-LONGIFB.02
6.02.02.05.05.02
The Longitudinal feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

F-ESR-INST.07
6.02.02
The ESR longitudinal bunch profile monitor needs turn-by-turn capability based on a single bunch in the fully filled bunch train to allow timing and energy adjustment for injection optimization.
02/09/2026
Approved
FALSE

P-ESR-INST-LONGIFB.01
6.02.02.05.05.02
The requirements for longitudinal feedback are ??? TBD
02/09/2026
In Process
FALSE

P-ESR-INST-LONGIFB.02
6.02.02.05.05.02
The Longitudinal feedback systems shall be capable of counteracting single-bunch rise times of 1 ms
02/09/2026
In Process
FALSE

F-ESR-INST.08
6.02.02
The ESR instrumentation system shall include system to measure H & V betatron tunes.
02/09/2026
Approved
FALSE

P-ESR-INST-TMK.01
6.02.02.05.03
Stripline kickers (H & V) shall be used to excite the beam so tunes can be measured using turn-by-turn BPM data.
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.02
6.02.02.05.03
The magnitude of the kick required for the horizontal kicker shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.03
6.02.02.05.03
The magnitude of the kick required for the vertical kicker shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.05
6.02.02.05.03
The location of the tune meter kicker striplines in the ESR shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.04
6.02.02.05.03
The kicker waveform (risetime and shape) requirements shall be TBD units
02/09/2026
In Process
FALSE

P-ESR-INST-TMK.06
6.02.02.05.03
The impedance of the kicker beamline device shall be approved by beam Physics.
02/09/2026
In Process
FALSE

F-ESR-INST.09
6.02.02
The ESR instrumentation system shall facilitate all required feedback systems (slow transverse, longitudinal and transverse bunch-by-bunch)
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.02
6.02.04.02
The slow orbit feedback correction output rate shall be 10 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.01
6.02.04.02
The slow orbit feedback BPM data averaging period shall be tbd -
02/09/2026
In Process
FALSE

P-ESR-INST-TRANSSLFB.01
6.02.02.05.05.01
The transverse slow feedback system bandwidth shall bs 10 Hz
02/09/2026
In Process
FALSE

F-ESR-INST.10
6.02.02
The ESR instrumentation system shall include beam loss monitor system with detectors located only at select regions of the ESR.
02/09/2026
Approved
FALSE

P-ESR-INST-BLM.01
6.02.02.05.02
BLM shall be needed to needed to protect sensitive equipment.
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.02
6.02.02.05.02
The number of BLM installed in the ESR shall be TBD ea
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.03
6.02.02.05.02
BLM shall be installed at the following locations in the ESR TBD
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.04
6.02.02.05.02
The sensitivity of the BLM detectors shall be TBD units?
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.05
6.02.02.05.02
Where possible existing RHIC BLM's can be relocated to identify ESR & HSR losses
02/09/2026
In Process
FALSE

P-ESR-INST-BLM.06
6.02.02.05.02
The response time from loss detection to abort shall be TBD us
02/09/2026
In Process
FALSE

ESR-INST-BCM : ESR Instrumentation Bunch Charge and Bunch Pattern Monitor (WBS 6.04.06)

ESR-INST-BLM : ESR Instrumentation Beam Loss Monitor (WBS 6.04.06)

ESR-INST-BPM : ESR Instrumentation Beam Postion Monitor System (WBS 6.04.06)

ESR-INST-BPM-ELEC : ESR Instrumentation Beam Postion Monitor (WBS 6.04.06)

P-ESR-INST-BPM-ELEC.01.01
6.02.02.05.01.01
The ESR BPM Electronics shall provide a turn-by-turn measurement which is defined as a range of 1 (us) to the revolution period of bunches combined.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.01.02
6.02.02.05.01.01
The ESR BPM Electronics for the first 20 BPMs after injection shall be capable of measuring individual bunch positions to minimize betatron oscillations of the newly injected bunches.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02.01
6.02.02.05.01.01
The ESR BPM electronics shall be capable of delivering an array of at least 1024 consecutive single-turn position measurements at a continuous rate of 1 (Hz).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02.02
6.02.02.05.01.01
The ESR BPM electronics shall be capable of delivering average beam orbit measurements at a continuous rate of 1 (Hz).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02.03
6.02.02.05.01.01
The ESR BPM electronics shall be capable of delivering bunch-by-bunch beam orbit measurements at a continuous rate of 1 (Hz).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02.04
6.02.02.05.01.01
The ESR BPM electronics shall be capable of bunch lifetime (1/e) measurements for the 2 non-colliding bunches during the 2.5 minute bunch duration.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02.05
6.02.02.05.01.01
The ESR BPM electronics shall be capable of delivering fast orbit feedback measurements at a continuous rate of 1 (kHz).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02.06
6.02.02.05.01.01
The ESR BPM electronics shall be capable of delivering slow orbit feedback measurements at a continuous rate of 1 (Hz).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.03.01
6.02.02.05.01.01
The ESR BPM electronics shall be capable of logging an array of at least TBD consecutive single-turn position measurements at a continuous rate of TBD Hz.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.03.02
6.02.02.05.01.01
The ESR BPM electronics shall be capable of logging average beam orbit measurements at a continuous rate of TBD Hz.
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.03.03
6.02.02.05.01.01
The ESR BPM electronics shall be capable of logging bunch-by-bunch beam orbit measurements at a continuous rate of TBD Hz.
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.03.04
6.02.02.05.01.01
The ESR BPM electronics shall be capable of logging bunch lifetime (1/e) measurements during the XXX minute bunch duration.
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.03.05
6.02.02.05.01.01
The ESR BPM electronics shall be capable of logging fast orbit feedback measurements at a continuous rate of TBD Hz.
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.03.06
6.02.02.05.01.01
The ESR BPM electronics shall be capable of logging slow orbit feedback measurements at a continuous rate of TBD Hz.
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.01
6.02.02.05.01.01
For pilot bunches the ESR BPM electronics shall have the following measurement resolutions defined for beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.01.01
6.02.02.05.01.01
The BPM Electronics shall have a measurement range grater than or equal to 2 (nC).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.01.02
6.02.02.05.01.01
The BPM Electronics shall have a single turn measurement horizontal and vertical resolution greater than or equal to (100um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.01.03
6.02.02.05.01.01
The BPM Electronics shall have an average orbit measurement resolution over 1 second greater than or equal to (30um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.01.04
6.02.02.05.01.01
The BPM Electronics shall have an reproducibility from run to run greater than or equal to (30um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.01.05
6.02.02.05.01.01
The BPM electronics measurement drift due to thermal variations (0.5hrs) shall be no greater than 50 (µm).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.02
6.02.02.05.01.01
For newly injected low charge refill bunches the ESR BPM electronics shall have the following measurement resolutions defined for beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.02.01
6.02.02.05.01.01
The BPM Electronics shall have a measurement range grater than or equal to 2 (nC).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.02.02
6.02.02.05.01.01
The BPM Electronics shall have a single turn measurement horizontal and vertical resolution resolution greater than or equal to (H=50 V=10 um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.02.03
6.02.02.05.01.01
The BPM Electronics shall have an average orbit measurement resolution over 1 second greater than or equal to TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.02.04
6.02.02.05.01.01
The BPM Electronics shall have an reproducibility from run to run greater than or equal to TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.02.05
6.02.02.05.01.01
The BPM electronics measurement drift due to thermal variations (0.5hrs) shall be no greater than 10 (µm).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.03
6.02.02.05.01.01
For newly injected high charge refill bunches the ESR BPM electronics shall have the following measurement resolutions defined for beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.03.01
6.02.02.05.01.01
The BPM Electronics shall have a measurement range between 7 to 28 (nC).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.03.02
6.02.02.05.01.01
The BPM Electronics shall have a single turn measurement horizontal and vertical resolution resolution greater than or equal to (H=50 V=10 um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.03.03
6.02.02.05.01.01
The BPM Electronics shall have an average orbit measurement resolution over 1 second greater than or equal to TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.03.04
6.02.02.05.01.01
The BPM Electronics shall have an reproducibility from run to run greater than or equal to TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.03.05
6.02.02.05.01.01
The BPM electronics measurement drift due to thermal variations (0.5hrs) shall be no greater than 5 (µm).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.04
6.02.02.05.01.01
For stored beam low charge refill bunches the ESR BPM electronics shall have the following measurement resolutions defined for beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.04.01
6.02.02.05.01.01
The BPM Electronics shall have a measurement range grater than or equal to 2 (nC).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.04.02
6.02.02.05.01.01
The BPM Electronics shall have a single turn measurement horizontal and vertical resolution resolution greater than or equal to (30um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.04.03
6.02.02.05.01.01
The BPM Electronics shall have an average orbit measurement resolution over 1 second greater than or equal to TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.04.04
6.02.02.05.01.01
The BPM Electronics shall have an reproducibility from run to run greater than or equal to TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.04.05
6.02.02.05.01.01
The BPM electronics measurement drift due to thermal variations (0.5hrs) shall be no greater than 30 (µm).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.05
6.02.02.05.01.01
For stored beam high charge refill bunches the ESR BPM electronics shall have the following measurement resolutions defined for beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.05.01
6.02.02.05.01.01
The BPM Electronics shall have a measurement range between 7 to 28 (nC).
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04.05.02
6.02.02.05.01.01
The BPM Electronics shall have a single turn measurement horizontal and vertical resolution resolution greater than or equal to (10 um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.05.03
6.02.02.05.01.01
The BPM Electronics shall have an average orbit measurement resolution over 1 second greater than or equal to (5um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.05.04
6.02.02.05.01.01
The BPM Electronics shall have an reproducibility from run to run greater than or equal to (5um) TBD (RMS).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-ELEC.04.05.05
6.02.02.05.01.01
The BPM electronics measurement drift due to thermal variations (0.5hrs) shall be no greater than 10 (µm).
02/09/2026
Reviewed
FALSE

R-ESR-INST-BPM-ELEC.01.01
6.04.06.01
Instrumentation Group shall provide design details that defines the building, rack layouts and power and LCW utilities for beam position monitor electronics and its associated subsystems.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.01.02
6.04.06.01
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the beam position monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.01.03
6.04.06.01
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the beam position monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.01.04
6.04.06.01
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the beam position monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.01.05
6.04.06.01
Infrastructure Group shall provide indoor enviromental control for the beam position monitor electronic buildings which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.02.01
6.04.06.01
Instrumentation Group shall provide the beam position monitor electronic rack and its subsystems design, including the spacial location, thermal and weight details.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.02.02
6.04.06.01
Instrumentation Group shall provide the plan and funding for the procurement of the racks to house beam position monitor electronics and its sub components which satisfies the design.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.02.03
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling to move and install beam position monitor electronic racks by the appropriate technical support group and its subsystems which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.02.04
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of beam position monitor electronics into the racks by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.03.01
6.04.06.01
Instrumentation Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each beam position monitor electronic rack.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.03.02
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the design and AC cable tray to contain the AC cable distribution from the wall mount distribution to each beam position monitor electronic rack.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.03.03
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable and AC cable tray from the wall mount distribution to each beam position monitor electronic rack by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.04.01
6.04.06.01
Instrumentation Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.04.02
6.04.06.01
Infrastructure Group shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.04.03
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the LCW piping design and procurement of materials from the wall distribution to connections to the beam position monitor electronic cooling loops which satisfies the Instrumentation Group design, including waterflow switches and one contact per switch.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.04.04
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each beam position monitor electronic DC Buss by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.05.01
6.04.06.01
Instrumentation Group shall provide the design and funding for procurement for each beam position monitor electronic UPS, including AC cable distribution from the wall mount distribution to each beam position monitor electronic rack.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.05.02
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of UPS and AC cable distribution cabling by the appropriate technical support group which satisfies the Instrumentation Group design into each beam position monitor electronic rack.
01/08/2026
In Process
FALSE

R-ESR-INST-BPM-ELEC.06.01
6.04.06.01
Instrumentation Group shall provide the design details defining the signal cable routing from the beam position monitor electronic and its associated subsystems into the tunnels.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.06.02
6.04.06.01
Infrastructure group shall provide tunnel penetrations for signal cables which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.06.03
6.04.06.01
Reference related beam position monitor interface document for signal cable termination iterface details inside of tunnel. (I-ESR-INST-BPM-PU.XX)
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.07.01
6.04.06.01
Machine Protection System (MPS) Group shall define the design details including input connections and data required to monitor beam position monitor electronic status.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.07.02
6.04.06.01
Instrumentation Group shall provide output from the MPS interface the data which satisfies MPS design.
09/24/2025
In Process
FALSE

R-ESR-INST-BPM-ELEC.08.01
6.04.06.01
Reference related controls interface document for Controls interface signal details. (I-ESR-CNTRL-XXX.XX)
09/24/2025
In Process
FALSE

ESR-INST-BPM-ELEC EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-INST-BPM-ELEC.01
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following capabilities defined for the low intensity pilot injection energies and high intensity collision energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.02
6.02.02.05.01.01
The ESR Beam Position Monitor (BPM) Electronics shall have the following time resolutions for data refresh defined for the beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.03
6.02.02.05.01.01
The ESR BPM Electronics shall have the following time resolutions for data logging defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.04
6.02.02.05.01.01
The ESR BPM Electronics shall have the following measurement resolutions defined for beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]:
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.05
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
Reviewed
FALSE

P-ESR-INST-BPM-ELEC.06
6.02.02.05.01.01
The ESR BPM Electronics shall be designed to operate in an ambient temperature degree from X (C) to X (C).
02/09/2026
Reviewed
FALSE

ESR-INST-BPM-PU : ESR Instrumentation Beam Postion Monitor Pick-up (WBS 6.04.06)

P-ESR-INST-BPM-PU.02.01
6.02.02.05.01.02
The first ESR 20 BPMs downstream of injection shall have the capability to measure the position of injected bunches, in the presence of already circulating bunches that are spaced ~10.15 (ns) apart.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.03.01
6.02.02.05.01.02
The ESR BPM system shall have single-turn / turn-by-turn trajectory (TbT) measurements at a rate of 12 (us) measurement (averaging) time with turns separated based on the 1 (μs) abort gap.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.04.01
6.02.02.05.01.02
The ESR BPM system shall have Closed Orbit (CO) measurements for beam orbit feedback and for day-to-day orbit correction purposes, polarization optimization, trouble shooting, etc.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.04.02
6.02.02.05.01.02
The ESR BPM system shall have Closed Orbit (CO) measurements averaging over n= TBD1 Turns or TBD1 (s).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-PU.05.01
6.02.02.05.01.02
The ESR BPMs shall have +/- 3 (mm) horizontal and vertical beam position range in the 80 (mm) ×36 (mm) chamber for position measurements in luminosity (LUMI) and fill (FILL) operations, and for Beam-Based Alignment (BBA) measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05.02
6.02.02.05.01.02
The ESR BPMs shall have +/- 10 (mm) horizontal and vertical beam position range in the 80 (mm) ×36 (mm) chamber for position measurements in machine commissioning (COMM) operations.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.06.01
6.02.02.05.01.02
The resolution, RMS, short term (ns, µs time scales) of the ESR BPMs shall be ≤ 100 (μm) for position measurements in single-bunch / bunch-by-bunch (BbB) and single-turn / turn-by-turn trajectory (TbT) modes during machine commissioning (COMM) operation.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.06.02
6.02.02.05.01.02
The resolution, RMS, short term (ns, µs time scales) of the first 20 ESR BPMs after injection shall be ≤ 15 (μm) for position measurements in single-bunch / bunch-by-bunch (BbB) during ESR luminosity (LUMI) operation.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.06.03
6.02.02.05.01.02
The resolution, RMS, short term (ns, µs time scales) of the ESR BPMs shall be ≤ 30 (μm) for position measurements in single-turn / turn-by-turn trajectory (TbT) modes in ESR luminosity (LUMI) operation.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.06.04
6.02.02.05.01.02
The ESR resolution, RMS, short term (ns, µs time scales) of the ESR BPMs shall be ≤ 5 (μm) for position measurements in Closed Orbit (CO) mode in ESR luminosity (LUMI) operation.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.06.05
6.02.02.05.01.02
The resolution, RMS, short term (ns, µs time scales) of the ESR BPMs shall be ≤ 2 (μm) for position measurements in Closed Orbit (CO) mode when performing ESR Beam Based Alignment (BBA) measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.07.01
6.02.02.05.01.02
The allowable measurement drift of the ESR BPMs shall be ≤ +/-1 (μm) in Closed Orbit (CO) mode in ESR luminosity (LUMI) operation with a time window of 1 (s).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.07.02
6.02.02.05.01.02
The allowable measurement drift of the ESR BPMs shall be ≤ +/-30 (μm) in Closed Orbit (CO) mode in ESR fill (FILL) operation with a time window of ~30 (min).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.07.03
6.02.02.05.01.02
The allowable measurement drift of the ESR BPMs shall be ≤ +/-5 (μm) in Closed Orbit (CO) mode in ESR luminosity (LUMI) operation within the store ~8 (hours).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.08.01
6.02.02.05.01.02
The scaling accuracy of the ESR BPMs shall be ≤ +/- 100 (μm) in the +/-3 (mm) measurement range defined for fill (FILL), luminosity (LUMI), and Beam Based Alignment (BBA) operations.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.08.02
6.02.02.05.01.02
The scaling accuracy of the ESR BPMs shall be ≤ +/- 300 (μm) in the +/-10 (mm) range defined for the beam commissioning (COMM) operation.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.09
6.02.02.05.01.02
The mechanical center of the ESR Beam Position Monitor Pickups, i.e., the horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- 200 (um).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.11.01
6.02.02.05.01.02
The ESR beam position monitor pick-up mechanical center x-y offset alignment tolerances with respect to its fiducials to the nearby quad magnetic center shall be ≤ TBD1 (um).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-PU.11.02
6.02.02.05.01.02
The ESR beam position monitor pick-up mechanical roll alignment tolerances with respect to its fiducials to the nearby quad magnetic center shall be ≤ TBD1 (mrad).
02/09/2026
In Process
FALSE

P-ESR-INST-BPM-PU.12
6.02.02.05.01.02
Wakefields and beam impedance of the ESR Beam Position Monitor Pickup design shall be meet the beam physics needs, with the geometric loss faction being below 2e-4 (V/pC) for 7 (\mm) bunch length and any strong eigen-resonances above approximately 15 (GHz).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.14
6.02.02.05.01.02
The ESR beam position monitor pick-ups assembly shall be a radiation hardened device.
02/09/2026
Approved
FALSE

R-ESR-INST-BPM-PU.01.01
6.04.06.01
Instrumentation Group shall provide design details that defines the mechanical connection for beam position monitor button to the beam position monitor pick-up assembly.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.01.02
6.04.06.01
Instrumentation Group shall provide thermal design limits for the beam position monitor pick-up assembly deformation due to thermal exposure.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.01.03
6.04.06.01
Mechanical engineering group shall define the design details for beam position monitor pickup assembly to satisfy the instrumentation thermal regulation design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.01.04
6.04.06.01
Vacuum group shall provide provisions to incorporate the beam position monitor pick-up assembly which satisfies the instrumentation and mechanical Group design into the beamline.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.01.05
6.04.06.01
Instrumentation Group shall provide the BPM buttons to be installed onto the beam position monitor pick-up assembly
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.02.01
6.04.06.01
The physics group shall indicate the location of the beam position monitor pick-up assembly in the lattice designated by a marker.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.02.02
6.04.06.01
Vacuum group shall define the installation details for the mechanical connection of beam position monitor pick-up assembly to the beamline.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.02.03
6.04.06.01
Vacuum group shall install the beam position monitor pick-up assembly into the vacuum chamber assembly.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.03.01
6.04.06.01
Physics Group shall provide the expected radiation dose in its installation location and if required the physics design of the radiation shielding for the beam position monitor pick-up assembly and its associated subsystems to mitigate exposure.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.03.02
6.04.06.01
Instrumentation Group shall provide radiation design limits for the beam position monitor and cable radiation hardness and/or sheilding required to mitigate damage from the expected radiation dose.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.04.01
6.04.06.01
Instrumentation Group shall provide design details that defines the signal cable connection for beam position monitor pick-up assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.04.02
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling to connect the beam position monitor required signal cable by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.04.03
6.04.06.01
Reference related beam position monitor electronics interface document for signal cable routing and installation interface details inside of tunnel. (I-ESR-INST-BPM-ELEC.XX)
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.05.01
6.04.06.01
Instrumentation Group shall provide thermal design details for beam position monitor buttons installed into the beam position monitor pick-up assembly.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.05.02
6.04.06.01
Vacuum group shall incorporate the defined thermal design limits for the beam position monitor pick-up assembly into its bakeout procedure for the ESR beamline which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.05.03
6.04.06.01
Vacuum group shall define the cleaniness and installation details for the mechanical connection of the beam position monitor pick-up assembly to the beamline.
01/08/2026
Reviewed
FALSE

R-ESR-INST-BPM-PU.05.04
6.04.06.01
Instrumentation Group shall provide funding to insure cleanliness installation of the beam position monitor pick-up design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

ESR-INST-BPM-PU EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-INST-BPM-PU.01
6.02.02.05.01.02
The ESR beam position monitor pick-up shall provide dual plane (horizontal and vertical) beam positional measurements.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.05
6.02.02.05.01.02
The ESR BPM system shall fulfill resolution and accuracy requirements over the following two defined transverse beam position ranges with respect vacuum chamber center, referenced to the mechanical fiducials on the BPM pickups.
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.10
6.02.02.05.01.02
The roll angle error of the ESR BPM pickup, given as the horizontal measurement plane defined by the BPM fiducials witrh respect to. the horizontal plane of the ESR ring shall be less than +/- 20 (mrad).
02/09/2026
Approved
FALSE

P-ESR-INST-BPM-PU.13
6.02.02.05.01.02
The beam position monitor pick-up assembly shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

ESR-INST-DCCT : ESR Instrumentation Current and Charge Monitor (WBS 6.04.06)

P-ESR-INST-DCCT.08
6.02.02.05.03
The ESR DC Current Transformer beamline device impedance shall be approved by beam physics.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.12
6.02.02.05.03
The ESR DC Current Transformer digitizer rate shall be 720 (Hz) and stored in an array of 1 (s) duration for post mortum use.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.13
6.02.02.05.03
The ESR DC Current Transformer shall be a radiation hardened device.
02/09/2026
Approved
FALSE

ESR-INST-DCCT EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-INST-DCCT.01
6.02.02.05.03
The ESR DC Current Transformer shall have the ability to measure the average beam current over a range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.02
6.02.02.05.03
The ESR DC Current Transformer shall provide an average current measurement with a resolution of less than 5 (uA /√Hz).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.03
6.02.02.05.03
The ESR DC Current Transformer measurement drift tolerance shall be less than 10 (uA) over 1 (hr).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.04
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy of better than +/- 1 (%) at 250 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.05
6.02.02.05.03
The ESR DC Current Transformer system average beam current measurement shall have an absolute accuracy between the range of 250 (mA) to 2.5 (A) at +/- 0.5 (%).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.07
6.02.02.05.03
The ESR DC Current Transformer system shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.09
6.02.02.05.03
The ESR DC Current Transformer system shall have a remote controlled self calibration system
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.10
6.02.02.05.03
The ESR DC Current Transformer Calibration system shall be capable of providing an equivalent ESR DC current over the full operating range within 0.25% over the beam current range of 0.15 (mA) to 2500 (mA).
02/09/2026
Approved
FALSE

P-ESR-INST-DCCT.11
6.02.02.05.03
The ESR DC Current Transformer measured average current shall be archived at a rate of 1 Hz
02/09/2026
Approved
FALSE

ESR-INST-DCCT-CM

R-ESR-INST-DCCT-CM.01.01
6.04.06.02
Instrumentation Group shall provide design details that defines the location limitations and the mechanical connection for the DC current transformer assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.01.02
6.04.06.02
The physics group shall indicate the location of the DC current transformer in the lattice designated by a marker that satisfies the instrumentation groups design limits
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.01.03
6.04.06.02
Vacuum group shall define the installation details for the mechanical connection for DC current transformer assembly and its associated subsystems to the vacuum beamline.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.01.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to install DC current transformer by the appropriate technical support group and its subsystems which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.02.01
6.04.06.02
Instrumentation Group shall provide radiation design limits for the DC current transformer assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.02.02
6.04.06.02
Physics Group shall provide the expected radiation dose in its installation location and if required the physics design of the radiation shielding for the DC Current Transformer and its associated subsystems to mitigate exposure.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.02.03
6.04.06.02
Mechanical engineering group shall define the installation details of the required radiation shielding design for the DC current transformer assembly and its associated subsystems to mitigate exposure which satisfies the Physics Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.02.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to install DC current transformer required radiation shielding design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.03.01
6.04.06.02
Instrumentation Group shall provide thermal design limits and required mitigation design for the DC current transformer assembly and its associated subsystems exposure
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.03.02
6.04.06.02
Mechanical engineering group shall define the installation details for DC current transformer temperature control design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.03.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to install DC current transformer temperature control design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.04.01
6.04.06.02
Instrumentation Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.04.02
6.04.06.02
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.04.03
6.04.06.02
Infustructure mechanical cooling shall provide the piping design and procurement of materials from the cooling water distribution to connections to the DC current transformer cooling loops which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.04.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of piping from the cooling water distribution to each DC current transformer cooling loops by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.05.01
6.04.06.02
Instrumentation Group shall provide design details that defines the signal cable connection for DC current transformer assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.05.02
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to connect the DC curent transformer required signal cable by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.05.03
6.04.06.02
Reference related DC Current Transformer electronics interface document for signal cable routing interface details inside of tunnel. (I-ESR-INST-DCCT-ELEC.XX)
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.06.01
6.05.05.03
Instrumentation Group shall provide thermal design parameters for the DC current transformer assembly and its associated subsystems exposure.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.06.02
6.05.05.03
Vacuum group shall incorporate the defined thermal design limits for the DC current transformer assembly into its bakeout procedure for the ESR beamline which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.06.03
6.05.05.03
Vacuum group shall define the cleaniness and installation details for the mechanical connection of the DC current transformer to the beamline.
01/08/2026
Reviewed
FALSE

R-ESR-INST-DCCT-CM.06.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to insure cleanliness installation of the DC current transformer design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

ESR-INST-DCCT-ELEC

R-ESR-INST-DCCT-ELEC.01.01
6.04.06.02
Instrumentation Group shall provide design details that defines the building, rack layouts and power utilities for DC current transformer electronics and its associated subsystems.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.01.02
6.04.06.02
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the DC current transformer electronics and its subcomponents which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.01.03
6.04.06.02
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the DC current transformer electronics and its subcomponents which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.01.04
6.04.06.02
Infrastructure Group shall provide reliable air conditioning and humidity control in the DC current transformer electronic buildings which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.02.01
6.04.06.02
Instrumentation Group shall provide the DC current transformer electronic rack and its subsystems design, including the spacial location, thermal and weight details.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.02.02
6.04.06.02
Instrumentation Group shall provide the plan and funding for the procurement of the racks to house DC current transformer electronics and its sub components which satisfies the design.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.02.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to move and install DC current transformer electronic racks by the appropriate technical support group and its subsystems which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-DCCT-ELEC.02.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of DC current transformer electronics into the racks by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-DCCT-ELEC.03.01
6.04.06.02
Instrumentation Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each DC current transformer electronic rack.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.03.02
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the design and AC cable tray to contain the AC cable distribution from the wall mount distribution to each DC current transformer electronic rack.
01/08/2026
In Process
FALSE

R-ESR-INST-DCCT-ELEC.03.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable and AC cable tray from the wall mount distribution to each DC current transformer electronic rack by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-DCCT-ELEC.04.01
6.04.06.02
Instrumentation Group shall provide the design details defining the signal cable routing from the DC current transformer electronic and its associated subsystems into the tunnels.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.04.02
6.04.06.02
Infrastructure group shall provide tunnel penetrations for signal cables which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.04.03
6.04.06.02
Reference related DC current transformer interface document for signal cable termination iterface details inside of tunnel. (I-ESR-INST-BPM-PU.XX)
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.05.01
6.04.06.02
Machine Protection System (MPS) Group shall define the design details including input connections and data required to monitor DC current transformer electronic status.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.05.02
6.04.06.02
Instrumentation Group shall provide output from the MPS interface the data which satisfies MPS design.
09/24/2025
In Process
FALSE

R-ESR-INST-DCCT-ELEC.06.01
6.04.06.02
Reference related controls interface document for Controls interface signal details. (I-ESR-CNTRL-XXX.XX)
09/24/2025
In Process
FALSE

ESR-INST-LONGIFB : ESR Instrumentation Longitudinal Bunch-by-Bunch Feedback (WBS 6.04.06)

ESR-INST-SLM : ESR Instrumentation Synchrotron Light Monitors (WBS 6.04.06)

ESR-INST-SLM EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

ESR-INST-TMK : ESR Instrumentation Horizontal and Vertical Tune Meter Kicker (WBS 6.04.06)

ESR-INST-TRANSFB : ESR Instrumentation Transverse Bunch-by-Bunch Feedback (WBS 6.04.06)

ESR-INST-TRANSSLFB : ESR Instrumentation Transverse Slow Feedback (WBS 6.04.06)

ESR-INST-FCM

P-ESR-INST-FCM.03
6.02.02.05.03
The ESR fast charge monitor shall be able to measure the integrated charge of a single bunch averaged over 1000 turns with a resolution of 100 (pC).
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.04
6.02.02.05.03
The ESR fast charge monitor charge measurement shall maintain its accuracy with a thermal drift of < TBD nC/K
02/09/2026
In Process
FALSE

P-ESR-INST-FCM.05
6.02.02.05.03
The ESR fast charge monitor charge measurement shall not vary more than +/- 1% per (mm) of beam offset.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.06
6.02.02.05.03
A fast charge monitor shall be installed in the ESR to measure bunch charge with an accuracy 2 (%).
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.08
6.02.02.05.03
The ESR fast charge monitor system shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.09
6.02.02.05.03
The impedance of the ESR fast charge monitor shall be approved by beam physics
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.10
6.02.02.05.03
The ESR fast charge monitor system shall, at a rate of 1 Hz, provide the charge of all bunches within a single turn.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.11
6.02.02.05.03
The ESR fast charge monitor system shall, at a rate of 1 Hz, provide an array of the average bunch charge per turn.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.12
6.02.02.05.03
The ESR fast charge monitor system shall, at a rate of 1 Hz, provide a turn-by-turn bunch charge measurement for a user-selected bunch.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.13
6.02.02.05.03
The ESR fast charge monitor shall be a radiation hardened device.
02/09/2026
Approved
FALSE

ESR-INST-FCM EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-INST-FCM.01
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring bunch patterns ranging from a single bunch, to a filled ring with 1,160 bunches.
02/09/2026
Approved
FALSE

P-ESR-INST-FCM.02
6.02.02.05.03
The ESR fast charge monitor shall be capable of measuring witness bunch for 1/e for a fixed gain over the beam lifetime.
02/09/2026
Approved
FALSE

ESR-INST-FCM-CM

R-ESR-INST-FCM-CM.01.01
6.04.06.02
Instrumentation Group shall provide design details that defines the location limitations and the mechanical connection for the fast charge monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.01.02
6.04.06.02
The physics group shall indicate the location of the fast charge monitor in the lattice designated by a marker that satisfies the instrumentation groups design limits
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.01.03
6.04.06.02
Vacuum group shall define the installation details for the mechanical connection of fast charge monitor assembly and its associated subsystems to the vacuum beamline.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.01.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to install fast charge monitor by the appropriate technical support group and its subsystems which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.02.01
6.04.06.02
Instrumentation Group shall provide radiation design limits for the fast charge monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.02.02
6.04.06.02
Physics Group shall provide the expected radiation dose in its installation location and if required the physics design of the radiation shielding for the fast charge monitor assembly and its associated subsystems to mitigate exposure.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.02.03
6.04.06.02
Mechanical engineering group shall define the installation details of the required radiation shielding design for fast charge monitor assembly and its associated subsystems to mitigate exposure which satisfies the Physics Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.02.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to install fast charge monitor required radiation shielding design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.03.01
6.04.06.02
Instrumentation Group shall provide thermal design limits and required temperature control design for the fast charge monitor assembly and its associated subsystems exposure.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.03.02
6.04.06.02
Mechanical engineering group shall define the installation details for fast charge monitor temperature control design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.03.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to install fast charge monitor temperature control design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.04.01
6.04.06.02
Instrumentation Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.04.02
6.04.06.02
Infustructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.04.03
6.04.06.02
Infustructure mechanical cooling shall provide the piping design and procurement of materials from the cooling water distribution to connections to the fast charge monitor cooling loops which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.04.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of piping from the cooling water distribution to each fast charge monitor cooling loops by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.05.01
6.04.06.02
Instrumentation Group shall provide design details that defines the signal cable connection for fast charge monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.05.02
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to connect the fast charge monitor required signal cable by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.05.03
6.04.06.02
Reference related fast charge monitor electronics interface document for signal cable routing and installation interface details inside of tunnel. (I-ESR-INST-FCM-ELEC.XX)
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.06.01
6.04.06.02
Instrumentation Group shall provide thermal design parameters for the fast charge monitor assembly and its associated subsystems exposure.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.06.02
6.04.06.02
Vacuum group shall incorporate the defined thermal design limits for the fast charge monitor assembly into its bakeout procedure for the ESR beamline which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.06.03
6.04.06.02
Vacuum group shall define the cleaniness and installation details for the mechanical connection of the fast charge monitor to the beamline.
01/08/2026
Reviewed
FALSE

R-ESR-INST-FCM-CM.06.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to insure cleanliness installation of the fast charge monitor design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

ESR-INST-FCM-ELEC

R-ESR-INST-FCM-ELEC.01.01
6.04.06.02
Instrumentation Group shall provide design details that defines the building, rack layouts and power utilities for fast charge monitor electronics and its associated subsystems.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.01.02
6.04.06.02
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the fast charge monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.01.03
6.04.06.02
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the fast charge monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.01.04
6.04.06.02
Infrastructure Group shall provide reliable air conditioning and humidity control in the fast charge monitor electronic buildings which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.02.01
6.04.06.02
Instrumentation Group shall provide the fast charge monitor electronic rack and its subsystems design, including the spacial location, thermal and weight details.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.02.02
6.04.06.02
Instrumentation Group shall provide the plan and funding for the procurement of the racks to house fast charge monitor electronics and its sub components which satisfies the design.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.02.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to move and install fast charge monitor electronic racks by the appropriate technical support group and its subsystems which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-FCM-ELEC.02.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of fast charge monitor electronics into the racks by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-FCM-ELEC.03.01
6.04.06.02
Instrumentation Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each fast charge monitor electronic rack.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.03.02
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the design and AC cable tray to contain the AC cable distribution from the wall mount distribution to each fast charge monitor electronic rack.
01/08/2026
In Process
FALSE

R-ESR-INST-FCM-ELEC.03.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable and AC cable tray from the wall mount distribution to each fast charge monitor electronic rack by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-ESR-INST-FCM-ELEC.04.01
6.04.06.02
Instrumentation Group shall provide the design details defining the signal cable routing from the fast charge monitor electronic and its associated subsystems into the tunnels.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.04.02
6.04.06.02
Infrastructure group shall provide tunnel penetrations for signal cables which satisfies the Instrumentation Group design.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.04.03
6.04.06.02
Reference related fast charge monitor interface document for signal cable termination iterface details inside of tunnel. (I-ESR-INST-BPM-PU.XX)
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.05.01
6.04.06.02
Machine Protection System (MPS) Group shall define the design details including input connections and data required to monitor fast charge monitor electronic status.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.05.02
6.04.06.02
Instrumentation Group shall provide output from the MPS interface the data which satisfies MPS design.
09/24/2025
In Process
FALSE

R-ESR-INST-FCM-ELEC.06.01
6.04.06.02
Reference related controls interface document for Controls interface signal details. (I-ESR-CNTRL-XXX.XX)
09/24/2025
In Process
FALSE

ESR-MPS : ESR Machine Protection System (WBS 6.06.03.01)

ESR-MPS-EXT_KICK : ESR Machine Protection System Single Turn Extraction Kicker (WBS 6.06.03.01)

ESR-MPS-EXT_KICK EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-MPS-EXT_KICK.01
6.04.04.03.01.02
The number of kickers shall be 6
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.02
6.04.04.03.01.02
The Rise time shall be 900 ns
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.03
6.04.04.03.01.02
The Fall time shall be NA sec
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.04
6.04.04.03.01.02
The flat top time shall be 13 us
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.05
6.04.04.03.01.02
The waveshape shall be trap
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.06
6.04.04.03.01.02
The painting shall be vertical
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.07
6.04.04.03.01.02
The maximum field shall be 0.12 T
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.08
6.04.04.03.01.02
The total deflection shall be 16 mrad
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.09
6.04.04.03.01.02
The maximum current shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.10
6.04.04.03.01.02
The maximum voltage shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.11
6.04.04.03.01.02
The inductance with cable shall be TBD (uH)
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.12
6.04.04.03.01.02
The Max rep rate shall be 100 kV/pC
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.13
6.04.04.03.01.02
The flat top repeatability shall be NA Hz
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.14
6.04.04.03.01.02
The flatness of flat top/pulse form shall be 1 %
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.15
6.04.04.03.01.02
The beam abort kicker shall be tbd %
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.16
6.04.04.03.01.02
The cooling type shall be w (W,A)
02/09/2026
In Process
FALSE

ESR-MPS-EXT_KICK-DUMP_BLK : ESR Machine Protection System Dump block (WBS 6.06.03.01)

ESR-MPS-EXT_KICK-INST_BP : ESR Machine Protection System Beam Pipe & Instrumentation (WBS 6.06.03.01)

ESR-MPS-EXT_KICK-LAMBERT : ESR Machine Protection System Lamberton Magnet (WBS 6.06.03.01)

ESR-MPS-EXT_KICK-QUAD : ESR Machine Protection System Line Quads (WBS 6.06.03.01)

ESR-MPS-ABORT

F-ESR-MPS-ABORT.03
6.04.04.03.01.02
The ESR fast abort system shall receive its trigger from the ESR machine protection system.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.04
6.04.04.03.01.02
The ESR fast abort system shall consist of a set of kickers, a septum magnet, and a beam dump
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.05
6.04.04.03.01.02
The ESR fast abort beam dump shall be external to the circulating beam line.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.06
6.04.04.03.01.02
The ESR fast abort beam dump shall be installed in the stub tunnel in IR2.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.07
6.04.04.03.01.02
The ESR beam dump shall be capable of absorbing the entire ESR beam (1160 bunches, 28 nC each, at 5 to 10 GeV, or 290 bunches, 11 nC each, at 18 GeV) without sustaining permanent damage.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.08
6.04.04.03.01.02
The ESR beam dump shall be capable of absorbing the entire ESR beam at a rate of up to once every 20 minutes at 5-10 GeV, or once every 5 minutes at 18 GeV, respectively.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.09
6.04.04.03.01.02
Radiation shielding shall be provided as part of the ESR beam dump assembly such that the radiation on the outer surface of the beam dump does not exceed TBD after TBD beam aborts at full intensity.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.10
6.04.04.03.01.02
The ESR abort kickers shall be installed in the IR2 straight section, inside the IR2 experimental hall.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.11
6.04.04.03.01.02
The rise time of the ESR abort kicker system shall not exceed 0.8 usec.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.12
6.04.04.03.01.02
The ESR abort kicker pulse shall remain at or near its peak value for a duration of at least 13 usec.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.13
6.04.04.03.01.02
The ESR abort kicker pulse amplitude shall be sufficiently large to detect the beam safely past the abort extraction septum.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.14
6.04.04.03.01.02
A septum magnet shall separate the extracted ESR beam from the circulating ESR Beam.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.15
6.04.04.03.01.02
The ESR septum magnet shall be designed such that the magnetic field in the circulating ESR beam enclosure does not compromise the circulating beam.
02/09/2026
Approved
FALSE

F-ESR-MPS-ABORT.16
6.04.04.03.01.02
Between the ESR septum magnet and the ESR beam dump, DC magnets shall be installed to dilute the beam at the entrance face of the beam dump, such that at least a 50 percent safety margin on beam intensity is guaranteed before permanent damage to the beam dump occurs.
02/09/2026
Approved
FALSE

ESR-MPS-ABORT EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-MPS-ABORT.01
6.04.04.03.01.02
The ESR shall contain an Abort system to dump the beam.
02/09/2026
Approved
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.01
6.04.04.03.01.02
The diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.02
6.04.04.03.01.02
The length shall be 2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.03
6.04.04.03.01.02
The materials shall be C / Al / Cu
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.04
6.04.04.03.01.02
The energy deposited during abort shall be 320 kJ
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.05
6.04.04.03.01.02
The frequency of thermal cycle shall be 1 hour
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.06
6.04.04.03.01.02
The window thickness shall be tbd mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.07
6.04.04.03.01.02
The window material shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.01
6.04.04.03.01.02
The Length shall be 50 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.02
6.04.04.03.01.02
The Internal diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.03
6.04.04.03.01.02
The Temperature sensors shall be yes
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.04
6.04.04.03.01.02
The BPMs shall be 4
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.05
6.04.04.03.01.02
The Correctors shall be 4
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.06
6.04.04.03.01.02
The Corrector PS shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.07
6.04.04.03.01.02
The power supply accuracy shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.08
6.04.04.03.01.02
The Cooling / pumping shall be yes
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.01
6.04.04.03.01.02
The deflection shall be 2 mrad
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.02
6.04.04.03.01.02
The length shall be 1.2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.03
6.04.04.03.01.02
The power supply shall be 1600 A
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.04
6.04.04.03.01.02
The power supply accuracy shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.05
6.04.04.03.01.02
The Y-chamber aperture shall be 36 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.06
6.04.04.03.01.02
May need to add additional window requirements for other leg of Lambertson magnet TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.01
6.04.04.03.01.02
The gradient shall be 17 T/m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.02
6.04.04.03.01.02
The power supply shall be 1600 A
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.03
6.04.04.03.01.02
The power supply accuracy shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.04
6.04.04.03.01.02
The length shall be 70 cm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.05
6.04.04.03.01.02
The aperture radius shall be 50 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.01
6.04.04.03.01.02
The number of kickers shall be 6
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.02
6.04.04.03.01.02
The Rise time shall be 900 ns
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.03
6.04.04.03.01.02
The Fall time shall be NA sec
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.04
6.04.04.03.01.02
The flat top time shall be 13 us
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.05
6.04.04.03.01.02
The waveshape shall be trap
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.06
6.04.04.03.01.02
The painting shall be vertical
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.07
6.04.04.03.01.02
The maximum field shall be 0.12 T
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.08
6.04.04.03.01.02
The total deflection shall be 16 mrad
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.09
6.04.04.03.01.02
The maximum current shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.10
6.04.04.03.01.02
The maximum voltage shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.11
6.04.04.03.01.02
The inductance with cable shall be TBD (uH)
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.12
6.04.04.03.01.02
The Max rep rate shall be 100 kV/pC
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.13
6.04.04.03.01.02
The flat top repeatability shall be NA Hz
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.15
6.04.04.03.01.02
The beam abort kicker shall be tbd %
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.14
6.04.04.03.01.02
The flatness of flat top/pulse form shall be 1 %
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.16
6.04.04.03.01.02
The cooling type shall be w (W,A)
02/09/2026
In Process
FALSE

F-ESR-MPS-ABORT.02
6.04.04.03.01.02
The ESR Abort system shall contain a beam dump to safely absorb the energy of the stored beam in a controlled fashion.
02/09/2026
Approved
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.01
6.04.04.03.01.02
The diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.02
6.04.04.03.01.02
The length shall be 2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.03
6.04.04.03.01.02
The materials shall be C / Al / Cu
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.04
6.04.04.03.01.02
The energy deposited during abort shall be 320 kJ
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.06
6.04.04.03.01.02
The window thickness shall be tbd mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.05
6.04.04.03.01.02
The frequency of thermal cycle shall be 1 hour
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.07
6.04.04.03.01.02
The window material shall be tbd
02/09/2026
In Process
FALSE

ESR-MPS-COLLIMATION

F-ESR-MPS-COLLIMATION.03
6.04.04.03.01.01
The ESR collimation system shall consist of betatron and momentum collimators.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.04
6.04.04.03.01.01
The ESR collimation system shall reduce the electron-induced detector background such that the detector can operate safely and efficiently.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.05
6.04.04.03.01.01
All ESR collimator stations shall be double-sided if available space allows. If only a single-sided collimator can be installed due to space constraints, a second collimator shall be installed on the same side as the first, at a betatron phase of 180 degrees from the first one.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.06
6.04.04.03.01.01
The ESR Collimators shall be placed at accelerator locations suitable for back-ground reduction at 5, 10, and 18 GeV electron beam current.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.07
6.04.04.03.01.01
The ESR Collimator jaws shall be independently and remotely movable over a range of TBD millimeters.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.08
6.04.04.03.01.01
The ESR Collimator jaw material shall be chosen such that the collimator jaw can absorb TBD electrons at TBD energies without sustaining permanent damage.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.09
6.04.04.03.01.01
All ESR collimator stations shall be equipped with appropriate beam loss monitors to protect the collimator jaws from excessive beam losses by aborting the beam via the Machine Protection System (MPS).
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.10
6.04.04.03.01.01
The ESR collimator jaws shall be wide enough to still be effective in the presence of beam orbit errors of TBD millimeters.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.11
6.04.04.03.01.01
The ESR collimator jaws need to be replaceable within TBD days.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.12
6.04.04.03.01.01
The ESR collimation stations shall be designed such as to minimize their beam impedance.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.13
6.04.04.03.01.01
The ESR collimation stations shall be designed for operation in a vacuum system with pressure in the TBD nTorr range.
02/09/2026
Approved
FALSE

F-ESR-MPS-COLLIMATION.14
6.04.04.03.01.01
The total number of ESR collimators shall be minimized in order to keep their contribution to the accelerator impedance at a minimum.
02/09/2026
Approved
FALSE

ESR-MPS-COLLIMATION EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-MPS-COLLIMATION.01
6.04.04.03.01.01
The ESR shall have a collimation system capable of ensuring a sufficiently low background at the detector.
02/09/2026
Approved
FALSE

P-ESR-COLL-ABS.01
6.04.04.03.01.01
The ESR Injection absorber shall be placed in Sector 12 adjacent to the Momentum collimator.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.02
6.04.04.03.01.01
The ESR Injection absorber shall be vertical.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.03
6.04.04.03.01.01
The vertical aperture shall be 17.5 mm half gap. +/- 17.5 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.04
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.05
6.04.04.03.01.01
The ESR injection absorber has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.11
6.04.04.03.01.01
The beam energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.12
6.04.04.03.01.01
The thermal duty cycle shall be 2 Hz. 2 Hz
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.1
6.04.04.03.01.01
The ESR detector absorbers shall be placed at Sector 5.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.2
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.3
6.04.04.03.01.01
The horizontal aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.4
6.04.04.03.01.01
The vertical aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.5
6.04.04.03.01.01
The horizontal aperture shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.6
6.04.04.03.01.01
The detector absorbers have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.7
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.8
6.04.04.03.01.01
The beam energy deposition shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.9
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be tbd kW. tbd kW
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.14
6.04.04.03.01.01
The jaw tip length shall be 21 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.15
6.04.04.03.01.01
The jaw material shall be Cu
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.16
6.04.04.03.01.01
The total length shall be 560-720 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.01
6.04.04.03.01.01
The ESR momentum collimators shall be placed in Sector 12 adjacent to the Injection absorber.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.02
6.04.04.03.01.01
The ESR momentum collimator shall be horizontal.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.03
6.04.04.03.01.01
The horizontal aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.04
6.04.04.03.01.01
The horizontal aperture shall be range shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.05
6.04.04.03.01.01
The ESR momentum collimator has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.01
6.04.04.03.01.01
The ESR primary vertical collimator shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.02
6.04.04.03.01.01
The ESR primary horizontal collimator shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.03
6.04.04.03.01.01
The vertical aperture shall range from 5 to 10 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.04
6.04.04.03.01.01
The horizontal aperture shall range from 8 to 23 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.05
6.04.04.03.01.01
The ESR primary collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W on the tip of the jaw. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch) on the tip of the jaw. 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.01
6.04.04.03.01.01
The ESR secondary vertical collimators shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.02
6.04.04.03.01.01
The ESR secondary horizontal collimators shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.03
6.04.04.03.01.01
The vertical aperture shall range from 6 to 11 mm (half gap, +/- tbd). tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.04
6.04.04.03.01.01
The horizontal aperture shall range from 9 to 25 mm (half gap, +/- tbd).
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.05
6.04.04.03.01.01
The ESR collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

F-ESR-MPS-COLLIMATION.02
6.04.04.03.01.01
The ESR shall have a collimation system capable protecting all machine elements in case of failure.
02/09/2026
Approved
FALSE

P-ESR-COLL-ABS.01
6.04.04.03.01.01
The ESR Injection absorber shall be placed in Sector 12 adjacent to the Momentum collimator.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.02
6.04.04.03.01.01
The ESR Injection absorber shall be vertical.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.03
6.04.04.03.01.01
The vertical aperture shall be 17.5 mm half gap. +/- 17.5 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.04
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.05
6.04.04.03.01.01
The ESR injection absorber has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.11
6.04.04.03.01.01
The beam energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.12
6.04.04.03.01.01
The thermal duty cycle shall be 2 Hz. 2 Hz
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.1
6.04.04.03.01.01
The ESR detector absorbers shall be placed at Sector 5.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.2
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.3
6.04.04.03.01.01
The horizontal aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.4
6.04.04.03.01.01
The vertical aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.5
6.04.04.03.01.01
The horizontal aperture shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.6
6.04.04.03.01.01
The detector absorbers have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.7
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.8
6.04.04.03.01.01
The beam energy deposition shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.9
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be tbd kW. tbd kW
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.14
6.04.04.03.01.01
The jaw tip length shall be 21 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.15
6.04.04.03.01.01
The jaw material shall be Cu
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.16
6.04.04.03.01.01
The total length shall be 560-720 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.01
6.04.04.03.01.01
The ESR momentum collimators shall be placed in Sector 12 adjacent to the Injection absorber.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.02
6.04.04.03.01.01
The ESR momentum collimator shall be horizontal.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.03
6.04.04.03.01.01
The horizontal aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.04
6.04.04.03.01.01
The horizontal aperture shall be range shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.05
6.04.04.03.01.01
The ESR momentum collimator has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.01
6.04.04.03.01.01
The ESR primary vertical collimator shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.02
6.04.04.03.01.01
The ESR primary horizontal collimator shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.03
6.04.04.03.01.01
The vertical aperture shall range from 5 to 10 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.04
6.04.04.03.01.01
The horizontal aperture shall range from 8 to 23 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.05
6.04.04.03.01.01
The ESR primary collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W on the tip of the jaw. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch) on the tip of the jaw. 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.01
6.04.04.03.01.01
The ESR secondary vertical collimators shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.02
6.04.04.03.01.01
The ESR secondary horizontal collimators shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.03
6.04.04.03.01.01
The vertical aperture shall range from 6 to 11 mm (half gap, +/- tbd). tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.04
6.04.04.03.01.01
The horizontal aperture shall range from 9 to 25 mm (half gap, +/- tbd).
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.05
6.04.04.03.01.01
The ESR collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

ESR-MPS-GENERAL

ESR-COLL : ESR Momentum Collimator System (WBS 6.06.03.02)

ESR-COLL-ABS : ESR Momentum Collimator Injection Absorbers (WBS 6.06.03.02)

ESR-COLL-ABS EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-COLL-ABS.01
6.04.04.03.01.01
The ESR Injection absorber shall be placed in Sector 12 adjacent to the Momentum collimator.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.02
6.04.04.03.01.01
The ESR Injection absorber shall be vertical.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.03
6.04.04.03.01.01
The vertical aperture shall be 17.5 mm half gap. +/- 17.5 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.04
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.05
6.04.04.03.01.01
The ESR injection absorber has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.11
6.04.04.03.01.01
The beam energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.12
6.04.04.03.01.01
The thermal duty cycle shall be 2 Hz. 2 Hz
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-ABS.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

ESR-COLL-DET : ESR Momentum Collimator Detector Absorbers (WBS 6.06.03.02)

ESR-COLL-DET EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-COLL-DET.1
6.04.04.03.01.01
The ESR detector absorbers shall be placed at Sector 5.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.2
6.04.04.03.01.01
The vertical aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.3
6.04.04.03.01.01
The horizontal aperture shall be fixed.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.4
6.04.04.03.01.01
The vertical aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.5
6.04.04.03.01.01
The horizontal aperture shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.6
6.04.04.03.01.01
The detector absorbers have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.7
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.8
6.04.04.03.01.01
The beam energy deposition shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.9
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be tbd kW. tbd kW
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.14
6.04.04.03.01.01
The jaw tip length shall be 21 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.15
6.04.04.03.01.01
The jaw material shall be Cu
02/09/2026
In Process
FALSE

P-ESR-COLL-DET.16
6.04.04.03.01.01
The total length shall be 560-720 mm
02/09/2026
In Process
FALSE

ESR-COLL-MOM : ESR Momentum Collimator (WBS 6.06.03.02)

ESR-COLL-MOM EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-COLL-MOM.01
6.04.04.03.01.01
The ESR momentum collimators shall be placed in Sector 12 adjacent to the Injection absorber.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.02
6.04.04.03.01.01
The ESR momentum collimator shall be horizontal.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.03
6.04.04.03.01.01
The horizontal aperture shall be tbd mm half gap. tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.04
6.04.04.03.01.01
The horizontal aperture shall be range shall be tbd.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.05
6.04.04.03.01.01
The ESR momentum collimator has dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.07
6.04.04.03.01.01
The beam energy deposition shall be 550 W. 550 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.08
6.04.04.03.01.01
The beam energy deposition shall be steady-state.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be negligible. ~0 W
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.11
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.12
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.13
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.14
6.04.04.03.01.01
The jaw tip length shall be 0.89 m
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.15
6.04.04.03.01.01
The jaw material shall be Al-Ti
02/09/2026
In Process
FALSE

P-ESR-COLL-MOM.16
6.04.04.03.01.01
The total length shall be 1.1 m
02/09/2026
In Process
FALSE

ESR-COLL-PRIM : ESR Momentum Collimator Primary Collimators (WBS 6.06.03.02)

ESR-COLL-PRIM EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-COLL-PRIM.01
6.04.04.03.01.01
The ESR primary vertical collimator shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.02
6.04.04.03.01.01
The ESR primary horizontal collimator shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.03
6.04.04.03.01.01
The vertical aperture shall range from 5 to 10 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.04
6.04.04.03.01.01
The horizontal aperture shall range from 8 to 23 mm (half gap, +/- 10 µm).
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.05
6.04.04.03.01.01
The ESR primary collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W on the tip of the jaw. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch) on the tip of the jaw. 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-PRIM.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

ESR-COLL-SECDRY : ESR Momentum Collimator Secondary Collimators (WBS 6.06.03.02)

ESR-COLL-SECDRY EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-COLL-SECDRY.01
6.04.04.03.01.01
The ESR secondary vertical collimators shall be placed at Sector 4.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.02
6.04.04.03.01.01
The ESR secondary horizontal collimators shall be placed at Sector 2.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.03
6.04.04.03.01.01
The vertical aperture shall range from 6 to 11 mm (half gap, +/- tbd). tbd mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.04
6.04.04.03.01.01
The horizontal aperture shall range from 9 to 25 mm (half gap, +/- tbd).
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.05
6.04.04.03.01.01
The ESR collimators have dual jaws.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.06
6.04.04.03.01.01
The aperture shall be centered on the beam axshall be.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.07
6.04.04.03.01.01
The beam energy deposition shall be 300 W. 300 W
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.08
6.04.04.03.01.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.09
6.04.04.03.01.01
The energy deposition from synchrotron radiation shall be 2.5 kW (horizontal only). 2.5 kW
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.10
6.04.04.03.01.01
The impedance shall be less than the Impedance budget (100 kV/pc). 100 kV/pc
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.11
6.04.04.03.01.01
Jaw angle in position relative to beam axshall be 1 mrad
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.12
6.04.04.03.01.01
The beam failure energy deposition shall be 275 J (1 bunch). 275 J
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.13
6.04.04.03.01.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.14
6.04.04.03.01.01
The tapered jaw slope shall be 1/10. 1/10
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.15
6.04.04.03.01.01
The jaw tip length shall be 180 mm
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.16
6.04.04.03.01.01
The jaw material shall be Mo-Gr
02/09/2026
In Process
FALSE

P-ESR-COLL-SECDRY.17
6.04.04.03.01.01
The total length shall be 762-995 mm
02/09/2026
In Process
FALSE

ESR-CONT : ESR Controls System (WBS 6.07.02)

ESR-CONT EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-CONT.01
6.02.04.02
The ESR control system shall facilitate all ESR global control requirements.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-CONT.02
6.02.04.02
The ESR control system shall facilitate all network, relational database and data archiving required.
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-CONT.03
6.02.04.02
The control system shall facilitate all machine protection systems required
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-CONT.04
6.02.04.02
The ESR control system shall facilitate all EIC machine timing required.
02/09/2026
Approved
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-CONT.05
6.02.04.02
The ESR control system shall facilitate fast orbit feedback integration systems as required.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.03
6.02.04.02
Placeholder for fast orbit feedback requirements
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.04
6.02.04.02
Placeholder for fast orbit feedback requirements
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.05
6.02.04.02
Placeholder for fast orbit feedback requirements
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

F-ESR-CONT.06
6.02.04.02
The ESR control system shall facilitate all physics application support required.
02/09/2026
Approved
FALSE

P-ESR-CONT-ALGNMNT.01
6.02.04.02
The BBA quad strength command output rate shall be 1 Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.06
6.02.04.02
The tune feedback measurement sample rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-FEEDBACK.07
6.02.04.02
The tune feedback correction rate shall be tbd Hz
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

ESR-CONT-ALGNMNT : ESR Controls Beam Based Alignment (WBS 6.07.02)

ESR-CONT-FEEDBACK : ESR Controls Slow Orbit Feedback (WBS 6.07.02)

ESR-CONT-SPIN : ESR Controls Spin Pattern (WBS 6.07.02)

ESR-RF : ESR RF System (WBS 6.08.03.02)

F-ESR-RF.01.03
6.02.02
The ESR RF Systems shall meet ambient magnetic field hygiene requirements.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.13.01
6.08.04.01
The SRF cryomodule maximum design ambient magnetic field amplitude shall be 700 mG.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.13.02
6.08.04.01
The minimum magnetic shield attenuation factor at SRF cavity equator shall be 250.
11/17/2025
Approved
FALSE

F-ESR-RF.01.04
6.02.02
The ESR RF Systems shall be designed to protect cryogenic surfaces utilizing passive thermal control systems to reduce radiative heat transfer on all 2K, 5K and 50K surfaces.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.07.05
6.08.04.01
The cold insulating maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.04
6.08.04.01
The warm insulating maximum vacuum shall be 1.0e-5 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.06
6.08.04.01
The insulating vacuum maximum leak rate shall be 1.0e-8 mbar L/s.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.13.03
6.08.04.01
The maximum thermal radiative heat transfer to all 2K and 5K surfaces shall be 2 W/m^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.13.04
6.08.04.01
The maximum thermal radiative heat transfer to all 50K surfaces shall be 5 W/m^2.
05/16/2025
Approved
FALSE

F-ESR-RF.01.05
6.02.02
The ESR RF Systems shall be designed to utilize common transportation methods without degradation of performance.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.12.01
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable vertical acceleration of ±4 G.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.12.03
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable beamline axis acceleration of ±5 G.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.12.02
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable lateral acceleration of ±1.5 G.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.12.04
6.08.04.01
The SRF Cryomodule shall be designed to withstand a tilt around the beamline axis (roll) up to ± 0.03 radians.
05/16/2025
Approved
FALSE

F-ESR-RF.01.06
6.02.02
The ESR RF Systems shall interface to all required accelerator systems.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.02.04
6.08.04.01
The SRF Cryomodule cavity helium jacket shall have a minimum helium bath vapor surface area of 0.049 m^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.05
6.08.04.01
The maximum designed helium supply operational temperature shall be 5.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.06
6.08.04.01
The range of the designed helium supply operational pressure shall be 3 to 3.5 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.07
6.08.04.01
The range of the designed combined helium return temperature shall be 20 to 100 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.08
6.08.04.01
The range of the designed combined helium return pressure shall be 2.4 to 2.6 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.09
6.08.04.01
The maximum designed sub-atmospheric helium return temperature shall be 4.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.10
6.08.04.01
The maximum designed sub-atmospheric helium return pressure shall be 30 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.03.01
6.08.04.01
The SRF Cryomodule cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.04
6.08.04.01
The minimum cavity aperture radius shall be 30 mm.
05/16/2025
Approved
FALSE

F-ESR-RF.02.01
6.02.02
The ESR RF Systems shall be able to accommodate 0.1 W/m electron beam losses.
02/09/2026
Approved
FALSE

F-ESR-RF.02.02
6.02.02
The ESR RF Systems shall provide conditioning capabilities necessary for ESR operations.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.11.01
6.08.04.01
Conditioning for individual components shall have a maximum average cryogenic power dissipation of 200 W.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.11.02
6.08.04.01
Conditioning for individual components shall be achieved with a maximum temperature of 2.1 K.
05/29/2025
Approved
FALSE

F-ESR-RF.02.03
6.02.02
The ESR RF Systems shall have an active frequency tuning system to maintain and tune the resonant frequency in order to accommodate radial beam offset and changes in the synchronous trajectory circumference.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.08.01
6.08.04.01
The minimum SRF Cavity Slow Tuner tuning range shall be 600 kHz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.03
6.08.04.01
The maximum SRF Cavity Slow Tuner resolution shall be ± 1 Hz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.02
6.08.04.01
The minimum SRF Cavity slow tuner tuning rate shall be 800 Hz/s.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.04
6.08.04.01
The maximum SRF Cavity Slow Tuner hysteresis shall be ± 20 Hz.
05/16/2025
Approved
FALSE

F-ESR-RF.03.03
6.02.02
The ESR RF Systems shall be rotatable around the beamline axis (roll) to facilitate installation without degradation of performance.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.12.04
6.08.04.01
The SRF Cryomodule shall be designed to withstand a tilt around the beamline axis (roll) up to ± 0.03 radians.
05/16/2025
Approved
FALSE

F-ESR-RF.03.04
6.02.02
The ESR RF Systems shall have alignment verification designed into the system.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.10.05
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.06
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.07
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.09
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.08
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.04 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.10
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

F-ESR-RF.04.01
6.02.02
The ESR RF Systems shall achieve an independent beam line vacuum level equivalent to the ESR operational vacuum level.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.02
6.08.04.01
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.01
6.08.04.01
The warm beamline maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.03
6.08.04.01
The beamline vacuum maximum leak rate shall be 5e-10 mbar L/s.
05/16/2025
Approved
FALSE

F-ESR-RF.05.01
6.02.02
The ESR RF Systems shall provide all necessary controls and diagnostics necessary for system operation but not extending beyond the RF System interfaces.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

F-ESR-RF.05.02
6.02.02
The ESR RF Systems shall provide 0.1% field amplitude stability
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.08
6.08.04.01
The SRF cryomodule FPC external quality factors shall all be within ± 0.1e5 of all other FPC external quality factor design values.
05/16/2025
Approved
FALSE

F-ESR-RF.05.03
6.02.02
The ESR RF Systems shall provide 0.02 degree phase stability
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.08
6.08.04.01
The SRF cryomodule FPC external quality factors shall all be within ± 0.1e5 of all other FPC external quality factor design values.
05/16/2025
Approved
FALSE

F-ESR-RF.06.03
6.02.02
The ESR RF Systems shall be protected from degradation due to adjacent beam lines and hardware.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.04
6.08.04.01
The manufactured SRF Cryomodule Cavity shall produce no field emission at 4 MV.
05/16/2025
Approved
FALSE

F-ESR-RF.06.06
6.02.02
The ESR RF Systems design shall be protected against beam loss and RF field collapse events.
02/09/2026
Approved
FALSE

F-ESR-RF.06.07
6.02.02
The ESR RF Systems shall maintain ESR operations in the event of single RF system failure.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.01
6.08.04.01
The minimum SRF Cavity Slow Tuner tuning range shall be 600 kHz.
05/16/2025
Approved
FALSE

F-ESR-RF.06.08
6.02.02
The ESR RF Systems active frequency tuning system shall be maintainable in-situ.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.07
6.08.04.01
The active SRF cavity tuning mechanism components (motor/gearbox/drive mechanism) shall be replaceable and maintainable in-situ.
05/16/2025
Approved
FALSE

F-ESR-RF.06.09
6.02.02
The ESR RF Systems air-side FPC components shall be maintainable in-situ.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

F-ESR-RF.07.01.02
6.02.02
The ESR Crabbing RF System shall be designed to crab electron bunches.
02/09/2026
Approved
FALSE

F-ESR-RF.07.02
6.02.02
The ESR Storage RF System design shall protect against common electron beam instabilities.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.01
6.08.04.01
The total SRF maximum RF longitudinal impedance (accelerator definition) shall be 52 MΩ Ghz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.02
6.08.04.01
The total SRF maximum RF horizontal impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.03
6.08.04.01
The total SRF maximum RF vertical impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.04
6.08.04.01
The minimum cavity aperture radius shall be 30 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.01
6.08.04.01
The SRF cavity minimum manufactured quality factor (Qo) shall be 1.5E10.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.05
6.08.04.01
The SRF pressure sensitivity maximum shall be 10 Hz/mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.03
6.08.04.01
The maximum SRF Cavity Slow Tuner resolution shall be ± 1 Hz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.06
6.08.04.01
The SRF maximum lorentz force detuning shall be 5 Hz/(MV/m)^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.04
6.08.04.01
The maximum SRF Cavity Slow Tuner hysteresis shall be ± 20 Hz.
05/16/2025
Approved
FALSE

F-ESR-RF.07.03
6.02.02
The ESR Storage RF System shall be designed as identical modular components to provide the full system functionality.
02/09/2026
Approved
FALSE

F-ESR-RF.07.04
6.02.02
The ESR Storage RF System shall maintain constant electron beam energy after injection.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.07
6.08.04.01
The SRF Cryomodule loaded quality factor shall be 2.9e5 ± 0.2e5.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

F-ESR-RF.07.05
6.02.02
The ESR Storage RF System shall be capable of coupling 10 MW of RF power to the beam.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

F-ESR-RF.07.06
6.02.02
The ESR Storage RF System shall maintain beam energy from 5 to 18 GeV.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.07
6.08.04.01
The SRF Cryomodule loaded quality factor shall be 2.9e5 ± 0.2e5.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.01
6.08.04.01
The minimum SRF Cavity Slow Tuner tuning range shall be 600 kHz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.03
6.08.04.01
The maximum SRF Cavity Slow Tuner resolution shall be ± 1 Hz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.04
6.08.04.01
The maximum SRF Cavity Slow Tuner hysteresis shall be ± 20 Hz.
05/16/2025
Approved
FALSE

F-ESR-RF.07.07
6.02.02
The ESR Storage RF System shall be able to provide 68 MV peak voltage for an RF bucket height 10x greater than the rms energy spread of the beam.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

ESR-RF EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-RF.01.01
6.02.02
The ESR RF Systems shall be designed to fulfill all necessary parameters as set by the Master Parameter Table (MPT). [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

F-ESR-RF.01.02
6.02.02
The ESR RF System shall utilize superconductivity.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.02.01
6.08.04.01
The cavity helium bath maximum designed operational temperature shall be 2 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.02
6.08.04.01
The cavity helium bath maximum designed operational pressure shall be 30 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.03
6.08.04.01
The cavity helium bath designed operational pressure stability shall be ±0.1 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.04
6.08.04.01
The SRF Cryomodule cavity helium jacket shall have a minimum helium bath vapor surface area of 0.049 m^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.05
6.08.04.01
The maximum designed helium supply operational temperature shall be 5.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.06
6.08.04.01
The range of the designed helium supply operational pressure shall be 3 to 3.5 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.07
6.08.04.01
The range of the designed combined helium return temperature shall be 20 to 100 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.08
6.08.04.01
The range of the designed combined helium return pressure shall be 2.4 to 2.6 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.09
6.08.04.01
The maximum designed sub-atmospheric helium return temperature shall be 4.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.10
6.08.04.01
The maximum designed sub-atmospheric helium return pressure shall be 30 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.07
6.08.04.01
The SRF cavity maximum Niobium temperature shall be 5 K during operation.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.01
6.08.04.01
The warm beamline maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.02
6.08.04.01
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.03
6.08.04.01
The beamline vacuum maximum leak rate shall be 5e-10 mbar L/s.
05/16/2025
Approved
FALSE

F-ESR-RF.03.01
6.02.02
The ESR RF Systems shall conform to the ESR lattice.
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-RF-ACAV:591S.10.04
6.08.04.01
The SRF cryomodule cavity beam axis to the tunnel floor shall be vertically alignable to 1381.09 ± 20 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.05
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.06
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.07
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.09
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.08
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.04 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.10
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

F-ESR-RF.03.02
6.02.02
The ESR RF Systems shall be installed in the straight sections of the ESR lattice within the existing RHIC tunnel in IR10.
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-RF-ACAV:591S.10.01
6.08.04.01
The SRF Cryomodule maximum length shall be 7.2 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.02
6.08.04.01
The SRF Cryomodule maximum width shall be 2.15 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.03
6.08.04.01
The SRF Cryomodule maximum height shall be 1.7 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.04
6.08.04.01
The SRF cryomodule cavity beam axis to the tunnel floor shall be vertically alignable to 1381.09 ± 20 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.05
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.06
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.07
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.08
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.04 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.09
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.10
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.11
6.08.04.01
The SRF Cryomodule cryogenic box maximum height shall be 2.1m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.13
6.08.04.01
The SRF Cryomodule cryogenic box maximum length (not including vacuum jacketed lines) shall be 1.5 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.12
6.08.04.01
The SRF Cryomodule cryogenic box maximum width shall be 1.0 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.14
6.08.04.01
The SRF Cryomodule cryogenic valve box minimum vertical stay clear height above the cryomodule shall be 0.92 m.
05/16/2025
Approved
FALSE

F-ESR-RF.06.01
6.02.02
The ESR RF Systems shall conform to the EIC Code of Record.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.09.01
6.08.04.01
All cryomodule surfaces accessible to workers shall be within the temperature range of 283 to 333 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.02
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME B31.3.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.03
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME BPVC.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.04
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASTM C1055.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.05
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.06
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70E.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.07
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.09
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.08
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.10
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards as directed by the DOE Vacuum Vessel Consensus Standards.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.14
6.08.04.01
The SRF Cryomodule shall be designed to meet or exceed the maximum working pressures defined by the EIC pressure document (Document No. TBD).
05/16/2025
Approved
FALSE

F-ESR-RF.06.02
6.02.02
The ESR RF Systems within the tunnel shall operate within its yearly radiation exposure budget.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

F-ESR-RF.06.04
6.02.02
The ESR RF Systems shall have a minimum operating lifetime of 20 years
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.04.01
6.08.04.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.02
6.08.04.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.03
6.08.04.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.08
6.08.04.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

F-ESR-RF.06.05
6.02.02
The ESR RF System shall be designed to minimize unscheduled downtime, maintenance time and repair time to achieve ESR operational availability.
02/09/2026
Approved
FALSE

P-ESR-CONT-SPIN.01
6.02.04.02
The ESR controls system shall be capable of producing arbitrary spin pattern at injection
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.02
6.02.04.02
The Spin pattern control granularity shall be 1 bunch
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.03
6.02.04.02
The number of bunches @ 18GeV shall be 290 cnt
02/09/2026
In Process
FALSE

P-ESR-CONT-SPIN.04
6.02.04.02
The number of bunches @ 10GeV and below shall be 1160 cnt
02/09/2026
In Process
FALSE

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.11
6.08.04.01
The minimum cooldown rate of the SRF cavity between 300K to 150K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.12
6.08.04.01
The minimum cooldown rate of the SRF cavity between 150K to 50K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.13
6.08.04.01
The minimum cooldown rate of the SRF cavity between 50K to 4.5K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.14
6.08.04.01
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.15
6.08.04.01
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.16
6.08.04.01
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.17
6.08.04.01
The SRF Cryomodule shall achieve a full warm-up cycle from 4K to 295K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.01
6.08.04.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.02
6.08.04.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.03
6.08.04.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.04
6.08.04.01
The manufactured SRF Cryomodule Cavity shall produce no field emission at 4 MV.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.08
6.08.04.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.07
6.08.04.01
The active SRF cavity tuning mechanism components (motor/gearbox/drive mechanism) shall be replaceable and maintainable in-situ.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.02
6.08.04.01
The minimum SRF Cavity slow tuner tuning rate shall be 800 Hz/s.
05/16/2025
Approved
FALSE

F-ESR-RF.07.01.01
6.02.02
The ESR Storage RF System shall be designed to accelerate electrons.
02/09/2026
Approved
FALSE

P-ESR-RF-ACAV:591S.05.01
6.08.04.01
The total SRF maximum RF longitudinal impedance (accelerator definition) shall be 52 MΩ Ghz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.02
6.08.04.01
The total SRF maximum RF horizontal impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.03
6.08.04.01
The total SRF maximum RF vertical impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.05
6.08.04.01
The maximum broadband RF power emitted from the cryomodule shall be 30 kW for all EIC design energies and currents.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.04
6.08.04.01
The SRF cavity nominal cold frequency shall be 591.149 MHz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.03
6.08.04.01
The SRF cavity field probe Qext range shall be 1.00E11 to 2.00E11.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

ESR-RF-SRF : Superconducting RF (WBS 6.08.04)

ESR-RF-SRF-591_1Cell : 591MHz 1 Cell Cryomodule (WBS 6.08.04.01)

ESR-RF-SRF-400KW

ESR-RF-ACAV:591S : 591MHz 1 Cell Cryomodule (WBS 6.08.04.01)

R-ESR-RF-ACAV:591S.01.01
6.08.04
Infrastructure shall provide supply and return headers within the tunnel for Low Conductivity Water (LCW) to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.01.02
6.08.04
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.01.03
6.08.04
RF Pre-Installation shall provide all distribution design, materials, and installation of the piping (or hoses) for Low Conductivity Water (LCW) from the tunnel header to the Cryomodules to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.01.04
6.08.04
SRF Systems shall provide Low Conductivity Water (LCW) supply/return receptacles at the Cryomodule to facilitate installation by RF Pre-Installation.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.02.01
6.08.04
SRF Systems shall provide instrument air receptables to be utilized by TBD.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.02.02
6.08.04
TBD shall provide an instrument air supply system for the required SRF Systems Cryomodule components in the tunnel.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.02.03
6.08.04
TBD shall provide all routing design, installation, and control logic to the instrument air receptacles on the SRF Systems Cryomodule.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.03.01
6.08.04
RF Pre-Installation shall provide the helium blowdown system design, materials (including helium gas), and installation labor to any water circuit required on the SRF cryomodule inside the tunnel.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.03.02
6.08.04
SRF Systems shall provide a helium blowdown receptacle to be utilized by Pre-Installation.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.01
6.08.04
The 2K Cryogenics Distribution System shall provide all distribution design, materials, and installation of the helium piping for the 2K helium distribution system inside the tunnel to the Cryomodules to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.02
6.08.04
The 2K Cryogenics Distribution System shall provide Supercritical Helium to/from the supply/return header(s) to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.03
6.08.04
SRF Systems shall provide Helium supply and return receptacle(s) at the cryomodule to be utilized by the 2K Cryogenics Distribution System.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.04
6.08.04
SRF Systems shall provide calculations and analyses necessary for sizing the piping and supply by the 2K Cryogenics Distribution.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.05
6.08.04
The 2K Cryogenics Distribution System shall provide all distribution design, materials, and installation of the helium piping for the helium relief system inside the tunnel to the cryomodule to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.06
6.08.04
SRF Systems shall provide a helium pressure relief valve with common relief header receptacle to be utilized by the 2K Cryogenics Distribution Relief System.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.07
6.08.04
SRF Systems shall provide calculations and analyses necessary for sizing the relief piping by the 2K Cryogenics Distribution relief header.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.08
6.08.04
The 2K Cryogenics Distribution System shall provide all distribution design, materials, and installation of the helium piping for the guard vacuum inside the tunnel to the cryomodule to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.04.09
6.08.04
SRF Systems shall provide a helium pressure relief valve with common guard vacuum receptacle to be utilized by the 2K Cryogenics Distribution System.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.05.01
6.08.04
Cryogenics Controls shall provide all cabling, routing design, installation, and control logic to the cryomodule control receptacles at the SRF Systems Cryomodules.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.05.02
6.08.04
SRF Systems shall provide helium liquid level monitor receptacles to be utilized by Cryogenics Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.05.03
6.08.04
SRF Systems shall provide pressure monitor receptacles to be utilized by Cryogenics Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.05.04
6.08.04
SRF Systems shall provide temperature monitors receptacles to be utilized by Cryogenics Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.05.05
6.08.04
SRF Systems shall provide heater control receptacles to be utilized by Cryogenics Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.05.06
6.08.04
SRF Systems shall provide cryogenic control valve receptacles to be utilized by Cryogenics Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.06.01
6.08.04
SRF Systems shall provide Beamline All Metal Gate Valve receptacles to be utilized by ESR Vacuum System.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.06.02
6.08.04
SRF Systems shall provide Beamline Ion pump receptacles to be utilized by ESR Vacuum System.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.06.03
6.08.04
SRF Systems shall provide Vacuum pressure receptacles to be utilized by ESR Vacuum System.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.06.04
6.08.04
TBD shall provide all cabling, routing design, installation, and control logic to the cryomodule vacuum control receptacles at the Cryomodules to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.07.01
6.08.04
SRF Systems shall provide RF feedback and control receptacles to be utilized by RF Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.07.02
6.08.04
SRF Systems shall provide temperature monitors receptacles to be utilized by RF Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.07.03
6.08.04
SRF Systems shall provide tuner control receptacles to be utilized by RF Controls.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.07.04
6.08.04
RF Controls shall provide all cabling, routing design, installation, and control logic to the cryomodule RF control receptacles at the Cryomodules to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.08.01
6.08.04
High Power RF shall design and provide a waveguide to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.08.02
6.08.04
SRF Systems shall provide a receptacle for the High Power RF waveguide to be utilized by High Power RF.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.08.03
6.08.04
Accelerator Installation shall provide the schedule and funding for the waveguide installation to the SRF Cryomodule.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.08.04
6.08.04
High Power RF shall provide DC Bias to be utilized by the SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.08.05
6.08.04
SRF Systems shall provide a receptable on the cryomodule for the DC Bias connection to be used by High Power RF.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.08.06
6.08.04
High Power RF shall provide all design, fabrication, and controls of the DC Bias system to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.09.01
6.08.04
Beamline Components shall provide a doorknob waveguide to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.09.02
6.08.04
Beamline Components shall provide a BLA to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.09.03
6.08.04
Beamline Components shall provide conditioned FPC to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.10.01
6.08.04
SRF Systems shall provide fiducialization points on the Cryomodule relating back to the electromagnetic center of the beamline to be utilized by Accelerator Installation.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.10.02
6.08.04
RF Pre-Installation shall arrange the installation location/area to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.10.03
6.08.04
Accelerator Installation shall provide the schedule and funding for the SRF Cryomodule installation and app technician support (lag bolts/rough alignment/pedestal/etc...).
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.10.04
6.08.04
The Mechanical Design Group shall model the tunnel to define the required spatial locations to be utilized by SRF Systems.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.11.01
6.08.04
SRF Systems shall provide a receptacle for the beamline connection on both ends of the SRF cryomodule to be utilized by RF System
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.11.02
6.08.04
ESR Vacuum System shall provide installation labor of the SRF Systems Cryomodule to the beamline.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.11.03
6.08.04
RF System shall ensure that during installation the SRF Systems Cryomodule cleanliness does not degrade.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.11.04
6.08.04
RF System shall ensure that the beamline components surrounding the SRF Systems Cryomodule does not degrade the performance of the SRF Systems Cryomodule during its lifetime.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.12.01
6.08.04
Cryomodule Verification shall ensure TJNAF has a bunker that can high power test the SRF Systems Cryomodule.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.12.02
6.08.04
RF Pre-Installation shall ensure BNL has a bunker that can high power test the SRF Systems Cryomodule.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.13.01
6.08.04
SRF Systems shall provide insulating vacuum gate valve receptables to be utilized by TBD.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.13.02
6.08.04
TBD shall provide a vacuum system for the insulating vacuum of the SRF Systems Cryomodule in the tunnel to be utilized by SRF Systems
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.13.03
6.08.04
TBD shall provide all cabling, routing design, installation, and control logic to the insulating vacuum control receptacles at the SRF Systems Cryomodule.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.13.04
6.08.04
RF Pre-Installation shall ensure BNL has a bunker that can high power test the SRF Systems Cryomodule.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.14.01
6.08.04
SRF Systems shall provide insulating vacuum gate valve receptables to be utilized by TBD.
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.14.02
6.08.04
TBD shall provide a vacuum system for the insulating vacuum of the SRF Systems Cryomodule in the tunnel to be utilized by SRF Systems
07/25/2025
In Process
FALSE

R-ESR-RF-ACAV:591S.14.03
6.08.04
TBD shall provide all cabling, routing design, installation, and control logic to the insulating vacuum control receptacles at the SRF Systems Cryomodule.
07/25/2025
In Process
FALSE

ESR-RF-ACAV:591S EXTERNALS
Requirements who's parents are in other sub-systems.

P-ESR-RF-ACAV:591S.01.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.01
6.08.04.01
The cavity helium bath maximum designed operational temperature shall be 2 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.02
6.08.04.01
The cavity helium bath maximum designed operational pressure shall be 30 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.03
6.08.04.01
The cavity helium bath designed operational pressure stability shall be ±0.1 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.04
6.08.04.01
The SRF Cryomodule cavity helium jacket shall have a minimum helium bath vapor surface area of 0.049 m^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.05
6.08.04.01
The maximum designed helium supply operational temperature shall be 5.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.06
6.08.04.01
The range of the designed helium supply operational pressure shall be 3 to 3.5 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.07
6.08.04.01
The range of the designed combined helium return temperature shall be 20 to 100 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.08
6.08.04.01
The range of the designed combined helium return pressure shall be 2.4 to 2.6 bar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.09
6.08.04.01
The maximum designed sub-atmospheric helium return temperature shall be 4.5 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.10
6.08.04.01
The maximum designed sub-atmospheric helium return pressure shall be 30 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.11
6.08.04.01
The minimum cooldown rate of the SRF cavity between 300K to 150K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.12
6.08.04.01
The minimum cooldown rate of the SRF cavity between 150K to 50K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.13
6.08.04.01
The minimum cooldown rate of the SRF cavity between 50K to 4.5K shall be 10 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.14
6.08.04.01
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.15
6.08.04.01
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.16
6.08.04.01
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.02.17
6.08.04.01
The SRF Cryomodule shall achieve a full warm-up cycle from 4K to 295K in a maximum of 2 days.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.03.01
6.08.04.01
The SRF Cryomodule cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.01
6.08.04.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.02
6.08.04.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.03
6.08.04.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.04
6.08.04.01
The manufactured SRF Cryomodule Cavity shall produce no field emission at 4 MV.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.05
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.06
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.07
6.08.04.01
The active SRF cavity tuning mechanism components (motor/gearbox/drive mechanism) shall be replaceable and maintainable in-situ.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.04.08
6.08.04.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.01
6.08.04.01
The total SRF maximum RF longitudinal impedance (accelerator definition) shall be 52 MΩ Ghz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.02
6.08.04.01
The total SRF maximum RF horizontal impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.03
6.08.04.01
The total SRF maximum RF vertical impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.04
6.08.04.01
The minimum cavity aperture radius shall be 30 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.05
6.08.04.01
The maximum broadband RF power emitted from the cryomodule shall be 30 kW for all EIC design energies and currents.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.06
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.07
6.08.04.01
The SRF Cryomodule loaded quality factor shall be 2.9e5 ± 0.2e5.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.05.08
6.08.04.01
The SRF cryomodule FPC external quality factors shall all be within ± 0.1e5 of all other FPC external quality factor design values.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.01
6.08.04.01
The SRF cavity minimum manufactured quality factor (Qo) shall be 1.5E10.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.02
6.08.04.01
The SRF cavity minimum manufactured voltage shall be 4 MV.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.03
6.08.04.01
The SRF cavity field probe Qext range shall be 1.00E11 to 2.00E11.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.04
6.08.04.01
The SRF cavity nominal cold frequency shall be 591.149 MHz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.05
6.08.04.01
The SRF pressure sensitivity maximum shall be 10 Hz/mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.06
6.08.04.01
The SRF maximum lorentz force detuning shall be 5 Hz/(MV/m)^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.07
6.08.04.01
The SRF cavity maximum Niobium temperature shall be 5 K during operation.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.06.08
6.08.04.01
The SRF cavity shall be designed to handle a minimum forward power of 800 kW.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.01
6.08.04.01
The warm beamline maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.02
6.08.04.01
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.03
6.08.04.01
The beamline vacuum maximum leak rate shall be 5e-10 mbar L/s.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.04
6.08.04.01
The warm insulating maximum vacuum shall be 1.0e-5 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.05
6.08.04.01
The cold insulating maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.07.06
6.08.04.01
The insulating vacuum maximum leak rate shall be 1.0e-8 mbar L/s.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.01
6.08.04.01
The minimum SRF Cavity Slow Tuner tuning range shall be 600 kHz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.02
6.08.04.01
The minimum SRF Cavity slow tuner tuning rate shall be 800 Hz/s.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.03
6.08.04.01
The maximum SRF Cavity Slow Tuner resolution shall be ± 1 Hz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.08.04
6.08.04.01
The maximum SRF Cavity Slow Tuner hysteresis shall be ± 20 Hz.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.01
6.08.04.01
All cryomodule surfaces accessible to workers shall be within the temperature range of 283 to 333 K.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.02
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME B31.3.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.03
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME BPVC.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.04
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASTM C1055.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.05
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.06
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70E.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.07
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.08
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.09
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.09.10
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards as directed by the DOE Vacuum Vessel Consensus Standards.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.01
6.08.04.01
The SRF Cryomodule maximum length shall be 7.2 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.02
6.08.04.01
The SRF Cryomodule maximum width shall be 2.15 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.03
6.08.04.01
The SRF Cryomodule maximum height shall be 1.7 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.04
6.08.04.01
The SRF cryomodule cavity beam axis to the tunnel floor shall be vertically alignable to 1381.09 ± 20 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.05
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.06
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.07
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.08
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.04 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.09
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.10
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.01 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.11
6.08.04.01
The SRF Cryomodule cryogenic box maximum height shall be 2.1m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.12
6.08.04.01
The SRF Cryomodule cryogenic box maximum width shall be 1.0 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.13
6.08.04.01
The SRF Cryomodule cryogenic box maximum length (not including vacuum jacketed lines) shall be 1.5 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.10.14
6.08.04.01
The SRF Cryomodule cryogenic valve box minimum vertical stay clear height above the cryomodule shall be 0.92 m.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.11.01
6.08.04.01
Conditioning for individual components shall have a maximum average cryogenic power dissipation of 200 W.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.11.02
6.08.04.01
Conditioning for individual components shall be achieved with a maximum temperature of 2.1 K.
05/29/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.12.01
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable vertical acceleration of ±4 G.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.12.02
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable lateral acceleration of ±1.5 G.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.12.03
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable beamline axis acceleration of ±5 G.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.12.04
6.08.04.01
The SRF Cryomodule shall be designed to withstand a tilt around the beamline axis (roll) up to ± 0.03 radians.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.13.01
6.08.04.01
The SRF cryomodule maximum design ambient magnetic field amplitude shall be 700 mG.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.13.02
6.08.04.01
The minimum magnetic shield attenuation factor at SRF cavity equator shall be 250.
11/17/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.13.03
6.08.04.01
The maximum thermal radiative heat transfer to all 2K and 5K surfaces shall be 2 W/m^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.13.04
6.08.04.01
The maximum thermal radiative heat transfer to all 50K surfaces shall be 5 W/m^2.
05/16/2025
Approved
FALSE

P-ESR-RF-ACAV:591S.14
6.08.04.01
The SRF Cryomodule shall be designed to meet or exceed the maximum working pressures defined by the EIC pressure document (Document No. TBD).
05/16/2025
Approved
FALSE

ESR-RF-ACAV:591S-FPC

P-ESR-RF-ACAV:591S-FPC.01
6.08.04.01
The FPC shall be designed and fabricated to deliver an average forward RF power of 400 kW under all reflection conditions expected during SRF operation and during SRF cavity quench.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.02
6.08.04.01
The FPC’s window bandwidth shall be (591 ± 10) MHz with S11 < -30 dB.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.03
6.08.04.01
The FPC shall be capable to withstand a maximum allowable 5G acceleration in all directions.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.04
6.08.04.01
The FPC lowest order mode mechanical frequency of the FPC during all events shall be greater than 60 Hz.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.05
6.08.04.01
The FPC design shall prevent modal mechanical resonance frequencies at multiples of 60 Hz up to 240 Hz.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.06
6.08.04.01
The maximum temperature of all surfaces on the FPC not accessible to workers shall be 100°C.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.07
6.08.04.01
The minimum temperature for all water-cooled FPC components shall be 0°C to prevent freezing.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.08
6.08.04.01
The FPC shall be designed and fabricated to provide a minimum bias voltage of ± 5 kV.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.09
6.08.04.01
The FPC air-side components shall be maintainable in-situ.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.10
6.08.04.01
The FPC shall have an air side purge with a minimum flow rate of 5 SCFH nitrogen gas with less than 10 ppm water and filtered to 25 µm.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.11
6.08.04.01
The FPC design shall protect against multipacting.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.12
6.08.04.01
The extension of the thermal transition from 2 K to room temperature shall not exceed 317 mm from the beam line axis.
06/05/2025
Approved
FALSE

P-ESR-RF-ACAV:591S-FPC.13
6.08.04.01
The FPC shall include arc detectors, independent vacuum monitoring, thermosensors, and heaters.
06/05/2025
Approved
FALSE

ESR-RF-400KW

P-ESR-RF-400KW.01
6.08.06.01
The RF Amplifier system shall utilize watercooling to dissipate a minimum of 80 % heat.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.02
6.08.06.01
The RF Amplifier system shall have a maximum die temperature of 130 C.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.03
6.08.06.01
The minimum acceptable system loss of RF Amplifiers due to faults shall be 10 %.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.04
6.08.06.01
The maximum RF Amplifier shutoff switch time shall be 100 ns.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.05
6.08.06.01
The RF Amplifier shall be designed to self-protect to a maximum overdrive power of 10 %.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.06
6.08.06.01
The RF Amplifier phase linearity over a 40dB dynamic range shall be 30 deg.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.07
6.08.06.01
The RF Amplified input/output impedance shall be 50 ohms.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.08
6.08.06.01
The maximum RF Amplifier input VSWR shall be 1.5:1 .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.09
6.08.06.01
The RF Amplifier input RF overdrive shall be 10 dBm.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.10
6.08.06.01
All RF Amplifier harmonics shall not exceed -30 dBc.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.11
6.08.06.01
The RF Amplifier spurious and line harmonics shall not exceed -80 dBc.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.12
6.08.06.01
The RF Amplifier noise power output in the ON state shall be -90 dBm/Hz.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.13
6.08.06.01
The RF Amplifier noise power output in the STANDBY state shall be -154 dBm/Hz.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.14
6.08.06.01
The maximum RF Amplifier group delay shall be 200 ns.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.15
6.08.06.01
The minimum RF Amplifier AC to RF efficiency at full rated power shall be 45 %.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.16
6.08.06.01
The operational frequency band of the RF Amplifier system shall be 591 ± 5 MHz.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.17
6.08.06.01
The minimum RF on/off ratio (Δgain between on/standby) shall be 86 dB.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.18
6.08.06.01
The RF Amplifier system shall be designed to operate in an ambient temperature range of 18-30 C.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.19
6.08.06.01
The RF Amplifier system shall be designed to operate in a maximum relative humidity of 60-65 %.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.20
6.08.06.01
With the load mismatch of less than 3:1, the RF Amplifier shall maintain 100% forward power. .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.21
6.08.06.01
With the load mismatch of greater than 3:1, the RF Amplifier shall utilize 0% forward power. .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.22
6.08.06.01
The RF Amplifier forward RF sample coupling across the amplifier bandwidth shall be 70±0.5 dB.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.23
6.08.06.01
The minimum RF Amplifier forward directivity across the amplifier bandwidth shall be 30 dB.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.24
6.08.06.01
The RF Amplifier reflected RF sample coupling across the amplifier bandwidth shall be 70±0.5 dB.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.25
6.08.06.01
The minimum RF Amplifier reflected directivity across the amplifier bandwidth shall be 30 dB.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.26
6.08.06.01
The maximum RF Amplifier audible noise at 1m shall be 70 dB(A).
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.27
6.08.06.01
The RF Amplifier pulse width range shall be .001-100 ms.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.28
6.08.06.01
The RF Amplifier duty cycle range shall be 1-50 %.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.29
6.08.06.01
The maximum RF Amplifer rise time during pulsed operation shall be 0.75 μs.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.30
6.08.06.01
The maximum RF Amplifer fall time during pulsed operation shall be 0.75 μs.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.31
6.08.06.01
The maximum RF Amplifier pulse drop at max pulse width shall be 0.5-1 dB.
11/21/2025
Approved
FALSE

P-ESR-RF-400KW.32
6.08.06.01
The maximum RF Amplifier phase error over pulse at max pulse width shall be 2.5-5 deg.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.33
6.08.06.01
The RF Amplifier AC Voltage input shall remain between 432-528 VAC.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.34
6.08.06.01
The RF Amplifier controls AC Voltage input shall remain between 108-132 VAC.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.35
6.08.06.01
The RF Amplifier AC frequency shall be 60 Hz .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.36
6.08.06.01
The RF Amplifier power factor shall be between 0.90-0.95 .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.37
6.08.06.01
The RF Amplifier input power for the rated output power shall be ±1.5 dBm.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.38
6.08.06.01
The minimum output power of the RF Amplifier for all operational modes shall be 200/400 kW.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.39
6.08.06.01
The minimum linear power of the RF Amplifier for all operational modes shall be 200/400 kW.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.40
6.08.06.01
The nominal power gain for the RF Amplifier system over a 40 dB dynamic range shall be 86 dB.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.41
6.08.06.01
The maximum power gain deviation of the RF Amplifier system shall be 1.5 dB.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.42
6.08.06.01
The RF Amplifier maximum height shall be 3 m.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.43
6.08.06.01
The RF Amplifier maximum width shall be 3 m.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.44
6.08.06.01
The RF Amplifier maximum length shall be 3 m.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.45
6.08.06.01
The RF Amplifier shall be designed to have a minimum MTBF of 10,000 hours.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.46
6.08.06.01
The RF devices shall be designed to have a minimum MTBF of 35,000 hours.
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.47
6.08.06.01
The RF amplifier shall be designed to meet all applicable standards as defined by ASTM C1055 as directed by the EIC Code of Records Doc No. EIC-ORG-RSI-026 and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA) .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.48
6.08.06.01
The RF amplifier shall be designed to meet all applicable standards as defined by 29 CFR 1910 as directed by the EIC Code of Records Doc No. EIC-ORG-RSI-026 and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA) .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.49
6.08.06.01
The RF amplifier shall be designed to meet all applicable standards as defined by NFPA 70E-2021 as directed by the EIC Code of Records Doc No. EIC-ORG-RSI-026 and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA) .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.50
6.08.06.01
The RF amplifier shall be designed to meet all applicable standards as defined by UL 508 as directed by the EIC Code of Records Doc No. EIC-ORG-RSI-026 and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA) .
11/20/2025
Approved
FALSE

P-ESR-RF-400KW.51
6.08.06.01
The RF amplifier shall be designed to meet all applicable standards as defined by Occupatioanl Radiation Protection 10 CFR 835 as directed by the EIC Code of Records Doc No. EIC-ORG-RSI-026 and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA) .
11/20/2025
Approved
FALSE

ESR-RF-CCAV:394

P-ESR-RF-CCAV:394.01
6.08.04.05
The SRF CM shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.02
6.08.04.05
The cavity helium bath maximum operational temperature shall be TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.03
6.08.04.05
The cavity helium bath maximum operational pressure shall be TBD mbar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.04
6.08.04.05
The cavity helium bath operation pressure stability shall be ±TBD mbar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.05
6.08.04.05
The maximum helium supply operational temperature shall be TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.06
6.08.04.05
The range of the helium supply operational pressure shall be TBD to TBD bar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.07
6.08.04.05
The range of the combined helium return temperature shall be TBD to TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.08
6.08.04.05
The range of the combined helium return pressure shall be TBD to TBD bar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.09
6.08.04.05
The maximum sub-atmospheric helium return temperature shall be TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.10
6.08.04.05
The maximum Subatmospheric helium return pressure shall be TBD mbar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.11
6.08.04.05
The minimum cooldown rate of the SRF cavity between 300K and 4.5K shall be TBD K/hour
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.12
6.08.04.05
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be TBD K/hour
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.13
6.08.04.05
The SRF CM shall achieve steady state temperature with the cavity bath at 4K in a maximum of TBD days
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.14
6.08.04.05
The chilled water and low-conductivity water operational temperature range shall be TBD to TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.15
6.08.04.05
The chilled water and low-conductivity water operational pressure range shall be TBD to TBD bar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.16
6.08.04.05
The minimum magnetic shield attenuation factor at SRF cavity equator shall be TBD
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.17
6.08.04.05
The SRF CM shall operate through a minimum of TBD thermal cycles
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.18
6.08.04.05
The minimum SRF Cavity Slow tuner minimum lifetime shall be TBD years
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.19
6.08.04.05
The minimum SRF CM Slow Tuner 1% range tuning cycles shall be TBD cycles
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.20
6.08.04.05
The minimum SRF CM Slow Tuner full range tuning cycles shall be TBD cycles
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.21
6.08.04.05
The manufactured SRF CM Cavity shall produce no field emission at TBD MV
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.22
6.08.04.05
The SRF CM components that are not replaceable in-situ shall be designed with a radiation tolerance greater than TBD MGy
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.23
6.08.04.05
The SRF CM components that are replaceable in-situ shall have a radiation tolerance greater than TBD kGy
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.24
6.08.04.05
The active SRF cavity tuning mechanism components (bearings/motor/piezo) shall be replaceable and maintainable in-situ.
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.25
6.08.04.05
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.26
6.08.04.05
The SRF CM instrument should have maximized instruments that can be maintained and replaced in-situ
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.27
6.08.04.05
The SRF maximum (per cavity) RF longitudinal impedance shall be TBD MΩ GHz
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.28
6.08.04.05
The SRF maximum (per cavity) RF horizontal impedance shall be TBD MΩ/m
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.29
6.08.04.05
The SRF maximum (per cavity) RF vertical impedance shall be TBD MΩ/m
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.30
6.08.04.05
The minimum cavity aperture radius shall be TBD mm
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.31
6.08.04.05
The maximum broadband RF power emitted from the CM shall be TBD kW
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.32
6.08.04.05
The Maximum Quadrupole multipole content shall be TBD mT
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.33
6.08.04.05
The Maximum Sextupole multipole content shall be TBD mT/m
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.34
6.08.04.05
The Maximum Octupole multipole content shall be TBD T/m^2
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.35
6.08.04.05
The Maximum Decapole multipole content shall be TBD T/m^3
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.36
6.08.04.05
The SRF cavity minimum manufactured quality factor (Qo) shall be TBD
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.37
6.08.04.05
The SRF cavity minimum manufactured voltage shall be TBD MV
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.38
6.08.04.05
The SRF cavity fundamental power coupler Qext shall be TBD
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.39
6.08.04.05
The SRF cavity field probe Qext range shall be TBD
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.40
6.08.04.05
The SRF cavity nominal cold frequency shall be TBD MHz
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.41
6.08.04.05
The SRF cavity maximum Niobium temperature shall be TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.42
6.08.04.05
The SRF Pressure sensitivity maximum shall be TBD Hz/mBar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.43
6.08.04.05
The SRF maximum Lorentz force detuning shall be TBD Hz/(Mv/m)^2
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.44
6.08.04.05
The warm beamline maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.45
6.08.04.05
The cold beamline maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.46
6.08.04.05
The beamline vacuum maximum leak rate shall be TBD mbar L/s
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.47
6.08.04.05
The warm insulating maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.48
6.08.04.05
The cold insulating maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.49
6.08.04.05
The insulating vacuum maximum leak rate shall be TBD mbar L/s
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.50
6.08.04.05
The minimum SRF Cavity Slow Tuner tuning range shall be shall be -TBD, +TBD kHz
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.51
6.08.04.05
The minimum SRF Cavity slow tuner tuning rate shall be TBD Hz/s
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.52
6.08.04.05
The maximum SRF Cavity Slow Tuner resolution shall be TBD Hz
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.53
6.08.04.05
The maximum SRF Cavity Slow Tuner hysteresis shall be ±TBD Hz
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.54
6.08.04.05
The external warm maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.55
6.08.04.05
The external cold maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.56
6.08.04.05
The internal maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.57
6.08.04.05
All cryomodule surfaces accessible to workers shall be within the temperature range of TBD to TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.58
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASME B31.3
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.59
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASME BPVC
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.60
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASTM C1055
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.61
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by NFPA 70
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.62
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.63
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by NFPA 70E
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.64
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.65
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.66
6.08.04.05
The SRF CM maximum length shall be TBD m
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.67
6.08.04.05
The SRF CM maximum width shall be TBD m
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.68
6.08.04.05
The SRF CM maximum height shall be TBD m
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.69
6.08.04.05
The distance from the beamline to the tunnel floor shall be TBD m
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.70
6.08.04.05
The Cavity Electromagnetic Center Alignment Tolerance in X shall be ±TBD μm
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.71
6.08.04.05
The Cavity Electromagnetic Center Alignment Tolerance in Y shall be ±TBD μm
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.72
6.08.04.05
The Cavity Electromagnetic Center Alignment Tolerance in Z shall be ±TBD mm
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.73
6.08.04.05
The Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ±TBD degrees
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.74
6.08.04.05
The Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ±TBD degrees
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.75
6.08.04.05
The Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ±TBD degrees
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.76
6.08.04.05
Conditioning for individual cavities shall have a maximum average cryogenic power dissipation of TBD W
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.77
6.08.04.05
Conditioning for individual cavities shall be achieved with a maximum temperature of TBD K
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.78
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable vertical acceleration of TBD G
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.79
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable lateral acceleration of TBD G
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.80
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable beamline axis acceleration of TBD G
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.81
6.08.04.05
The SRF CM shall be designed to withstand a minimum tilt around the beamline axis (roll) of ±TBD radians
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.82
6.08.04.05
The SRF Cryomodule loaded quality factor shall be TBD ± TBD.
05/16/2025
In Process
FALSE

P-ESR-RF-CCAV:394.83
6.08.04.05
The SRF Cryomodule FPC external quality factor balance shall be TBD.
05/16/2025
In Process
FALSE

ESR-ARC : Arc Sections

ESR-ARC EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-ARC.01
6.02.02
The ESR lattice arc magnet structure shall contain an array of regular FODO cells
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.02
6.02.02
The ESR lattice arc magnet structure shall consists of a quadrupole, a sextupole, a bending section, and a dipole corrector in each arc half-cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-ARC.03
6.02.02
The ESR lattice arc magnet structure shall accommodate slightly different average arc radii in the individual arcs by adjusting the drift spaces between individual elements in each FODO cell.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.04
6.02.02
The ESR beamline bending sections shall contain three individual dipole magnets, referred to as “super-bends”.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.05
6.02.02
The ESR super-bends shall generate additional synchrotron radiation damping to support a large beam-beam parameter of 0.1 and to create the required horizontal design emittance in the Master Parameter Table (MPT) when the ESR is operated at energies below 10 GeV. [Document: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

P-ESR-INST-SLM.01
6.02.02.05.04
The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.02
6.02.02.05.04
The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.03
6.02.02.05.04
TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.04
6.02.02.05.04
The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.05
6.02.02.05.04
The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.06
6.02.02.05.04
The SLM shall be able to measure the H & V beam size with accuracy of H=?? V=?? units
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.07
6.02.02.05.04
The SLM shall be able to measure the Global coupling with accuracy of TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.08
6.02.02.05.04
One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.09
6.02.02.05.04
The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.10
6.02.02.05.04
The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.11
6.02.02.05.04
The SLM light extraction port mirrors shall be water cooled to avoid image distortion.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.12
6.02.02.05.04
There shall be an enclosed SL transport from the light extraction port to the SLM optical lab rooms. Length to be determined by the distance to optical lab room, should be minimized to reduce vibration problems.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.13
6.02.02.05.04
The locations of the SLM optical lab rooms shall be TBD -
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.14
6.02.02.05.04
The double-slit interferometer method shall be used to measure transverse beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.15
6.02.02.05.04
The standard transverse resolution of an SLM using visible light shall be ~60 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.16
6.02.02.05.04
The resolution using the double-slit method shall equal to 10 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.17
6.02.02.05.04
A streak camera shall be used to measure the bunch longitudinal profiles
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.18
6.02.02.05.04
A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.19
6.02.02.05.04
A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.20
6.02.02.05.04
A commercially available gated camera with gate width of <2 nsec (compared to a minimum bunch spacing of 10 nsec) shall be used to detect injection oscillations and for beam studies.
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.21
6.02.02.05.04
The location of the X-ray pinhole monitoring system shall be TBD
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.22
6.02.02.05.04
The target resolution of the X-ray pin hole monitoring system shall be ~ 5 um (or as best that can be achieved with the machine parameters and commercial equipment) 5 um
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.23
6.02.02.05.04
The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.24
6.02.02.05.04
The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.25
6.02.02.05.04
A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size
02/09/2026
In Process
FALSE

P-ESR-INST-SLM.26
6.02.02.05.04
Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.
02/09/2026
In Process
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.06
6.02.02
The polarity of the ESR center bending magnet shall be capable of being wired in reverse to control the beam emittance and to damp the beam. The polarity will be dictated by the beam energy.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-ESR-ARC.07
6.02.02
The FODO cell shall operate with a horizontal and vertical betatron phase advance of 60 degrees per arc section at beam energies of 10 GeV and below.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

F-ESR-ARC.08
6.02.02
The ESR Sextupole wiring scheme shall create the required sextupole families needed per arc to maximize dynamic aperture at the 60 degrees per FODO cell phase advance at < 10 GeV.
02/09/2026
Approved
FALSE

F-ESR-ARC.09
6.02.02
The FODO cell shall operate with a horizontal and vertical betatron phase advance of 90 degrees per arc section to maintain the required horizontal beam emittance defined in the MPT at 18 GeV. [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-ARC.10
6.02.02
The ESR Sextupole wiring scheme shall create the required sextupole families needed per arc to maximize dynamic aperture at the 90 degrees per FODO cell phase advance at 18 GeV.
02/09/2026
Approved
FALSE

F-ESR-ARC.11
6.02.02
The vertical emittance shall be controlled by appropriate beam orbit manipulations and horizontal-vertical cross coupling.
02/09/2026
Approved
FALSE

ESR-CRYO_CENT_PLANT : Cryogenics Central Plant

ESR-CRYO_IR10_SAT_PLANT : IR10 Satellite Cryogenics Plant

ESR-INJ

F-ESR-INJ.01
6.02.02
The ESR injection system shall inject a single bunch onto the closed orbit.
02/09/2026
Approved
FALSE

F-ESR-INJ.02
6.02.02
The ESR injection system shall be installed in IR4.
02/09/2026
Approved
FALSE

F-ESR-INJ.03
6.02.02
The ESR injection point shall be upstream of IP4, where the ESR is installed along the outer tunnel wall.
02/09/2026
Approved
FALSE

F-ESR-INJ.04
6.02.02
The ESR injection system shall be capable of injecting one bunch per second.
02/09/2026
Approved
FALSE

F-ESR-INJ.05
6.02.02
The ESR injection system kickers shall deflect the incoming beam in the horizontal direction.
02/09/2026
Approved
FALSE

F-ESR-INJ.06
6.02.02
The ESR injection kicker pulse form shall be such that fewer than 10 stored bunches receive a kick that leads to betatron oscillations of these bunches that correspond to less than 0.1 RMS transverse beam sizes.
02/09/2026
Approved
FALSE

F-ESR-INJ.07
6.02.02
The ESR injection system shall upon injection of a new bunch into a given bucket extract the spent stored bunch by the same kicker pulse.
02/09/2026
Approved
FALSE

F-ESR-INJ.08
6.02.02
The ESR injection system shall deflect replaced (extracted) bunches towards a dedicated beam dump.
02/09/2026
Approved
FALSE

F-ESR-INJ.09
6.02.02
The ESR injection system beam dump for replaced bunches (replacement dump) shall be internal to the beam pipe.
02/09/2026
Approved
FALSE

F-ESR-INJ.10
6.02.02
The ESR injection system replacement dump shall be capable of absorbing one bunch per second, with the bunch parameters listed in the Master Parameter Table. [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-INJ.11
6.02.02
The ESR injection system shall be designed with a 50 percent safety margin for absorption of spent bunches into the replacement dump.
02/09/2026
Approved
FALSE

F-ESR-INJ.12
6.02.02
The ESR injection system shall have radiation shielding provided around the replacement dump.
02/09/2026
Approved
FALSE

F-ESR-INJ.13
6.02.02
There shall be no slow injection/extraction bump in the ESR.
02/09/2026
Approved
FALSE

F-ESR-INJ.14
6.02.02
Incoming bunches from the RCS shall have their transverse emittances matched to the equilibrium emittances in the ESR within 10 percent.
02/09/2026
Approved
FALSE

F-ESR-INJ.15
6.02.02
The energy, bunch length, and momentum spread of the incoming bunches from the RCS shall be matched to the ESR bucket.
02/09/2026
Approved
FALSE

F-ESR-INJ.16
6.02.02
The layout of the ESR injection and extraction beam lines shall minimize the required kick angle by taking advantage of the split yokes of the APS quadrupoles in the area.
02/09/2026
Approved
FALSE

ESR-INJ-DUMP

F-ESR-INJ-DUMP.01
6.04.04.03.01.02
The ESR replacement beam dump shall be located in IR4.
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.02
6.04.04.03.01.02
The ESR replacement beam dump shall be located downstream of the ESR injection kicker.
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.03
6.04.04.03.01.02
The ESR replacement beam dump shall be internal.
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.04
6.04.04.03.01.02
The ESR replacement beam dump shall be based on the ESR injection kicker, which extracts a single bunch towards the replacement dump as it injects a fresh bunch into the ESR.
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.05
6.04.04.03.01.02
The spent ESR bunch shall be extracted in the horizontal plane.
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.06
6.04.04.03.01.02
The ESR horizontal half aperture for the circulating beam at the location of the replacement beam dump shall correspond to at least 15 horizontal RMS beam sizes, based on the emittances defined in the Master Parameter Table (MPT), plus an additional 10 mm. [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.07
6.04.04.03.01.02
The ESR vertical half aperture for the circulating beam at the location of the replacement beam dump shall correspond to at least 15 vertical RMS beam sizes, assuming a fully coupled beam based on the emittances defined in the MPT, plus an additional 5 mm. [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.08
6.04.04.03.01.02
The ESR replacement beam dump shall be capable of safely absorbing one bunch per second, with the bunch parameters defined in the MPT. [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.09
6.04.04.03.01.02
The material(s) of the ESR replacement beam dump shall be consistent with these requirements.
02/09/2026
Approved
FALSE

F-ESR-INJ-DUMP.10
6.04.04.03.01.02
The geometry of the ESR replacement dump shall be consistent with the impedance budget requirements of the ESR.
02/09/2026
Approved
FALSE

ESR-STRAIGHT : Straight Sections

ESR-STRAIGHT EXTERNALS
Requirements who's parents are in other sub-systems.

F-ESR-STRAIGHT.01
6.02.02
The phase advance of each straight section shall be tunable in order to optimize the dynamic aperture of the ESR.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.02
6.02.02.03.04.01
The magnet integrated gradient field, G, shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.02.06
6.02.02.03.04.01
The magnet-to-magnet field variability between magnets shall be less than 0.25%.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.01
6.02.02.03.04.01
The field harmonic measurements shall be measured at the reference radius of 25mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.02
6.02.02.03.04.01
The reference integrated field for the measurement shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03
6.02.02.03.04.01
The integrated field over the length of the magnet at the reference radius shall meet the following harmonic multipole content:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.02
6.02.02.03.04.01
b2=10000, a2 = N/A
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.03
6.02.02.03.04.01
-2.00 < b3 < 2.00, -1.00 < a3 < 1.00
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.04
6.02.02.03.04.01
-1.75 < b4 < 1.75, -0.47 < a4 < 0.46
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.05
6.02.02.03.04.01
-0.50 < b5 < 0.50, -0.30 < a5 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.06
6.02.02.03.04.01
-1.75 < b6 < 1.75, -0.20 < a6 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.07
6.02.02.03.04.01
-1.00 < b7 < 1.00, -0.50 < a7 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.08
6.02.02.03.04.01
-1.00 < b8 < 1.00, -0.50 < a8 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.09
6.02.02.03.04.01
-1.00 < b9 < 1.00, -0.50 < a9 < 0.50
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.10
6.02.02.03.04.01
-1.00 < b10 < 1.00, -0.20 < a10 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.11
6.02.02.03.04.01
-1.00 < b11 < 1.00, -0.40 < a11 < 0.40
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.12
6.02.02.03.04.01
-1.00 < b12 < 1.00, -0.30 < a12 < 0.30
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.13
6.02.02.03.04.01
-1.00 < b13 < 1.00, -0.20 < a13 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.14
6.02.02.03.04.01
-0.30 < b14 < 0.30, -0.02 < a14 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.15
6.02.02.03.04.01
-1.00 < b15 < 1.00, -0.20 < a15 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.03.16
6.02.02.03.04.01
-1.00 < b16 < 1.00, -0.20 < a16 < 0.20
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within reference radius at half and full field excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.01
6.02.02.03.05.01
b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.02
6.02.02.03.05.01
-5 < b2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.03
6.02.02.03.05.01
-25 < b3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.04
6.02.02.03.05.01
-5 < b4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.05
6.02.02.03.05.01
-25 < b5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.06
6.02.02.03.05.01
-5 < b6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.07
6.02.02.03.05.01
-25 < b7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.08
6.02.02.03.05.01
-5 < b8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.09
6.02.02.03.05.01
-25 < b9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.10
6.02.02.03.05.01
-5 < b10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.11
6.02.02.03.05.01
-25 < b11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.12
6.02.02.03.05.01
-5 < b12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.13
6.02.02.03.05.01
-25 < b13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.14
6.02.02.03.05.01
-5 < b14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.15
6.02.02.03.05.01
-25 < b15 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.03.03.16
6.02.02.03.05.01
-5 < b16 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.01
6.02.02.03.05.01
The magnet integrated dipole field (B) shall be 12 milli T-m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.02.06
6.02.02.03.05.01
The maximum magnet-to-magnet variability shall be 0.5%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03
6.02.02.03.05.01
The magnet shall be measured using the field homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.01
6.02.02.03.05.01
The magnet field quality shall be measured within the reference radius at half and full excitation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03
6.02.02.03.05.01
The integrated field over the length of the magnet shall have a variation with respect to transverse offset of less than |dB|/B = 0.003 and shall meet the following multipole content requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.01
6.02.02.03.05.01
a1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.02
6.02.02.03.05.01
-5 < a2 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.04
6.02.02.03.05.01
-25 < a3 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.05
6.02.02.03.05.01
-5 < a4 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.06
6.02.02.03.05.01
-25 < a5 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.07
6.02.02.03.05.01
-5 < a6 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.08
6.02.02.03.05.01
-25 < a7 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.09
6.02.02.03.05.01
-5 < a8 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.10
6.02.02.03.05.01
-25 < a9 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.11
6.02.02.03.05.01
-5 < a10 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.12
6.02.02.03.05.01
-25 < a11 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.13
6.02.02.03.05.01
-5 < a12 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.15
6.02.02.03.05.01
-5 < a14 < 5
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.14
6.02.02.03.05.01
-25 < a13 < 25
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.03.03.16
6.02.02.03.05.01
-25 < a15 < 25
02/09/2026
Approved
FALSE

F-ESR-STRAIGHT.02
6.02.02
The ESR straight sections IR02, IR04, IR10 and IR12 shall be based on FODO cells.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.03.02
6.02.02.03.04.01
The reference integrated field for the measurement shall be 11.3 T.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

F-ESR-STRAIGHT.03
6.02.02
Ther ESR shall have matching sections at the ends of each of the straight sections to compensate for the different FODO cell lengths with respect to the arc FODO cells imposed by geometric constraints.
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.01
6.02.02.03.04.01
The magnet shall be single function quadrupole with a normal field rotation.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.06
6.02.02.03.04.01
The maximum physical magnet length shall be 0.88 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11
6.02.02.03.04.01
The magnet shall be designed to fit within the following envelope:
02/09/2026
Approved
FALSE

P-ESR-MAG-QN:80.01.11.01
6.02.02.03.04.01
The maximum magnet axial dimensions shall be X = 45 cm and Y = 45 cm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.01
6.02.02.03.05.01
The magnet shall operate with a single functions with a Dipole field type and Horizontal field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TH:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

P-ESR-MAG-TV:20.01.06
6.02.02.03.05.01
The maximum physical magnet length shall be 0.2 m.
02/09/2026
Approved
FALSE

Hadron Storage Ring Requirements

General, functional and performance requirements associated with the Hadron Storage Ring of the Electron Ion Collider.

Name
WBS
Description
Updated
Status
TBD
HSR : Hadron Storage Ring

G-HSR.01
6.02.03
The range of unpolarized ion species currently produced by the Relativistic Heavy Ion Collider (RHIC) complex shall be preserved for Electron-Ion Collider (EIC) Hadron Storage Ring (HSR) operation (from deuterons to uranium) defined in the Master Parameter Table. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

G-HSR.02
6.02.03
The HSR shall deliver Protons bunches having at least a 70% polarization at full beam energy ready for collision.
02/09/2026
Approved
FALSE

G-HSR.03
6.02.03
The HSR shall deliver 3He bunches having at least a 70% polarization at full beam energy ready for collision.
02/09/2026
Approved
FALSE

G-HSR.04
6.02.03
Design of the Hadron storage ring shall allow the possibility of future operation with a polarized deuteron beam.
02/09/2026
Approved
FALSE

G-HSR.05
6.02.03
The HSR shall provide the capability to collide protons at beam energies of 41 GeV, and from 100 to 275 GeV.
02/09/2026
Approved
FALSE

G-HSR.06
6.02.03
The HSR shall provide the capability to collide 3He at beam energies of 41 GeV/nucleon, and from 100 to 183 GeV/nucleon.
02/09/2026
Approved
FALSE

G-HSR.07
6.02.03
The HSR shall provide the capability to collide electrons with Au ions at 41 GeV/nucleon and from 100 to 110 GeV/nucleon energies.
02/09/2026
Approved
FALSE

G-HSR.08
6.02.03
The HSR shall provide the capability to collide other ion species at a maximum energy equivalent to a beam rigidity Bρ value of 916.67 Tm.
02/09/2026
Approved
FALSE

G-HSR.09
6.02.03
The HSR shall provide the capability to vary the hadron revolution frequency to match it at different hadron energies (41 GeV/nucleon and 100 - 275 GeV/nucleon) with the revolution frequency of electron beam in the ESR.
02/09/2026
Approved
FALSE

G-HSR.10
6.02.03
The HSR Ion bunches shall meet the parameters specified for different species defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.11
6.02.03
The HSR shall be able to provide beams of required species for collision having the beam currents as specified in the MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

G-HSR.12
6.02.03
The HSR shall utilize a vacuum system capable of operating with peak and average beam current defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.13
6.02.03
The Relativistic Heavy Ion Collider (RHIC) lattice shall be preserved and where required modified for Electron Ion Collider (EIC) Hadron Storage Ring (HSR) operations defined in the Master Parameter Table (MPT). [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.14
6.02.03
The HSR shall have a instrumentation system to operate for all beam species which need monitoring and will, where possible utilize the existing RHIC instrumentation system.
02/09/2026
Approved
FALSE

G-HSR.15
6.02.03
All HSR components and systems shall be designed and installed in line with all relevant regulatory codes and in full compliance with BNL SBMS.
02/09/2026
Approved
FALSE

G-HSR.16
6.02.03
The HSR uptime shall be consistent with the overall uptime requirements of the EIC.
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

G-HSR.17
6.02.03
The HSR shall meet the beam parameters specified for different species at injection defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-HSR-INJ.01
6.02.03
The HSR injection system shall utilize the existing RHIC injector chain upstream of the RHIC-ATR D26 Dipole magnet with no modifications.
02/09/2026
Approved
FALSE

F-HSR-INJ.02
6.02.03
The HSR injection system, consisting of the transport beamline, septum magnet and injection kickers, shall be capable of transporting a maximum beam rigidity of 81.12Tm from the transport line to IR4 central area and injecting it into the HSR.
02/09/2026
Approved
FALSE

F-HSR-INJ.03
6.02.03
The HSR Injection System design shall use a warm transport line in arc 6-4 as continuation of the Injection line to transport the hadron beam to the injection system located in IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ.04
6.02.03
The HSR injection transport beamline shall be able to transport polarized beam with less than 5% polarization loss.
02/09/2026
Approved
FALSE

F-HSR-INJ.05
6.02.03
The HSR injection system shall be able to inject all beam species with less than 5% beam emittance increase.
02/09/2026
Approved
FALSE

F-HSR-INJ.06
6.02.03
The HSR injection system shall be able to fill the HSR with 290 consecutive bunches without interruption.
02/09/2026
Approved
FALSE

F-HSR-INJ.07
6.02.03
The HSR injection system shall be able to fill the HSR with one(1) bunch per AGS cycle for polarized proton, two(2) bunches per AGS cycle for ion beams.
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR-INJ.08
6.02.03
The HSR injection system transfer line shall provide the following physical aperture:
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

G-HSR.18
6.02.03
The HSR shall utilize an Injection system to provide the ability for single bunch transport and Injection at IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ-MAG.01
6.02.03
Any reused existing RHIC-ATR transfer line magnets shall meet the requirements of the new approved HSR Injection line lattice.
02/09/2026
Approved
FALSE

F-HSR-INJ-MAG.02
6.02.03
New magnets shall only be used where any available existing magnets do not meet the requirements of the new approved HSR Injection line lattice.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.01
6.02.03
The HSR injection kickers shall provide a half aperture greater than 10σ for the stored beam at Collison energies.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.02
6.02.03
The HSR injection kickers shall provide a half aperture greater than 7σ for the stored beam at injection energies.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.03
6.02.03
The HSR injection kickers shall provide a half aperture greater than 6σ for the injected beam.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.04
6.02.03
The HSR injection kicker system shall be able to deflect the injected beam to be on axis
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.05
6.02.03
The HSR injection kicker system shall be installed in the straight section of the IR4 area.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.06
6.02.03
The HSR injection kicker system shall be capable of single-bunch on-axis injection to fill the ring with 290 bunches.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.07
6.02.03
The HSR injection kicker system rise time shall be short enough so that it does not step on the previous bunch.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.08
6.02.03
The present RHIC injection kicker system including the Lambertson magnet and current injection kicker magnets at the 5 o’clock area shall be removed.
02/09/2026
Approved
FALSE

F-HSR-INJ-PS.01
6.02.03
The HSR Injection System magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets
02/09/2026
Approved
FALSE

F-HSR-INJ-VAC.01
6.02.03
The vacuum level in the HSR transport line shall be kept at the same level as in the current RHIC-ATR line.
02/09/2026
Approved
FALSE

F-HSR-INJ-VAC.02
6.02.03
A ~20m section of the warm injection beamline near the HSR including the injection septum shall have a vacuum pressure of ~1E-10 torr or better, after baking .
02/09/2026
Approved
FALSE

F-HSR-INJ.01
6.02.03
The HSR injection system shall utilize the existing RHIC injector chain upstream of the RHIC-ATR D26 Dipole magnet with no modifications.
02/09/2026
Approved
FALSE

F-HSR-INJ.02
6.02.03
The HSR injection system, consisting of the transport beamline, septum magnet and injection kickers, shall be capable of transporting a maximum beam rigidity of 81.12Tm from the transport line to IR4 central area and injecting it into the HSR.
02/09/2026
Approved
FALSE

F-HSR-INJ.03
6.02.03
The HSR Injection System design shall use a warm transport line in arc 6-4 as continuation of the Injection line to transport the hadron beam to the injection system located in IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ.04
6.02.03
The HSR injection transport beamline shall be able to transport polarized beam with less than 5% polarization loss.
02/09/2026
Approved
FALSE

F-HSR-INJ.05
6.02.03
The HSR injection system shall be able to inject all beam species with less than 5% beam emittance increase.
02/09/2026
Approved
FALSE

F-HSR-INJ.06
6.02.03
The HSR injection system shall be able to fill the HSR with 290 consecutive bunches without interruption.
02/09/2026
Approved
FALSE

F-HSR-INJ.07
6.02.03
The HSR injection system shall be able to fill the HSR with one(1) bunch per AGS cycle for polarized proton, two(2) bunches per AGS cycle for ion beams.
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR-INJ.08
6.02.03
The HSR injection system transfer line shall provide the following physical aperture:
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

G-HSR.19
6.02.03
The HSR shall utilize an RF system capable of operating over the parameters defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.20
6.02.04.02
The HSR shall have a control system which can operate the HSR consistent will the overall control of the other EIC system's and to ensure the HSR meets all the Physics requirements needed to deliver the physics goals of the EIC.
02/09/2026
Approved
FALSE

G-HSR.21
6.02.04.04
The HSR shall have a cryogenic system to cool and operate all elements which need cryogenic cooling and will, where possible utilize the existing RHIC cooling system.
02/09/2026
Approved
FALSE

F-HSR.01
6.02.03
The HSR proton beam shall be ramped from injection energy to a maximum collision energy of 275 GeV.
02/09/2026
Approved
FALSE

F-HSR.02
6.02.03
The HSR shall be designed for changing beam optics between the injection configuration to collision configuration with beam in the machine.
02/09/2026
Approved
FALSE

F-HSR.03
6.02.03
The HSR beam at collision energies shall be synchronized to the revolution frequency of the electron beam.
02/09/2026
Approved
FALSE

F-HSR.04
6.02.03
The HSR systems shall provide the capability to operate with a radial shift, having a full range of +/-21 (mm) beam orbit in all arcs.
02/09/2026
Approved
FALSE

F-HSR.05
6.02.03
The HSR systems shall operate with a vertical orbit excursion having a full range of +/-2 (mm) beam orbit in all arcs.
02/09/2026
Approved
FALSE

F-HSR.06
6.02.03
The HSR decoupling system shall provide the capability to maintain a flat beam with the required beam size ratios.
02/09/2026
Approved
FALSE

F-HSR.07
6.02.03
The HSR orbit tune chromaticity correction, nonlinear correction and gamma-T jump systems, shall be provided with the same capability as in the present RHIC machine.
02/09/2026
Approved
FALSE

F-HSR.08
6.02.03
The HSR shall provide a dynamic aperture greater than 6σ under colliding beam conditions.
02/09/2026
Approved
FALSE

F-HSR.09
6.02.03
The physical aperture for the circulating hadron beam at the store energies shall be greater than 10σ in the horizontal and vertical planes.
02/09/2026
Approved
FALSE

F-HSR.10
6.02.03
The physical aperture for the circulating hadron beam at the injection energy shall be greater than 7σ in the horizontal and 6σ in the vertical plane in all locations, for normalized beam emittance of 2.5 um.
02/09/2026
Approved
FALSE

F-HSR.11
6.02.03
The physical aperture for the circulating hadron beam at the injection energy in the beam dump beam pipe shall be greater than 6σ in the horizontal and vertical planes.
02/09/2026
In Process
FALSE

F-HSR.12
6.02.03
The apertures of the downstream, near-IR magnets, within the IR hadron lattice, shall be large enough to transport a 4 mrad cone of neutral particles from the IP without obstruction.
02/09/2026
Approved
FALSE

F-HSR.13
6.02.03
The apertures of the forward side near-IR magnets, within the IR hadron lattice, shall be large enough to transport particles having a transverse momentum of up to 1.3 GeV/c with a 275GeV proton beam without obstruction.
02/09/2026
Approved
FALSE

F-HSR.14
6.02.03
The apertures of the forward side, near-IR magnets, within the IR hadron lattice, shall accommodate off beam-axis detectors which can detect forward scattered protons with a transverse momentum of 0.2GeV to 1.3GeV at a proton beam energy of 275GeV.
02/09/2026
Approved
FALSE

F-HSR.15
6.02.03
At the store energies the vacuum chamber shall provide sufficient horizontal and vertical aperture to accommodate, a +/-10 sigma beam, where the vertical RMS beam size is based on the emittance of a fully coupled beam. In the arcs an additional 20 mm horizontally and 2 mm vertically shall be included to account for the radially shifted beam and orbit errors.
02/09/2026
Approved
FALSE

F-HSR.16
6.02.03
The HSR alignment requirements are established by dynamic aperture and polarization tracking. The HSR RMS alignment tolerances shall be such that all the beam parameters listed in the MPT can be satisfied. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR.17
6.02.03
The operational availability design target for the HSR shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements Document. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR.18
6.02.03
The HSR shall deliver spin polarized ion beams with store-averaged polarization of at least 70 percent at collision.
02/09/2026
Approved
FALSE

F-HSR.19
6.02.03
The HSR lattice shall have features to preserve the polarization from injection to collision energies.
02/09/2026
Approved
FALSE

F-HSR.20
6.02.03
The HSR lattice will utlise RHIC snakes and spin rotators to control the hadron spin.
02/09/2026
Approved
FALSE

F-HSR.21
6.02.03
The HSR shall be capable of delivering bunches with longitudinal spins to the IP.
02/09/2026
Approved
FALSE

F-HSR.22
6.02.03
The HSR Lattice shall contain provisions for correctors such as horizontal and vertical dipole correctors, skew quadrupoles, octupoles, etc. as needed.
02/09/2026
Approved
FALSE

HSR-MAG : HSR Magnet (WBS 6.05.02.01)

HSR-MAG-D5I : HSR Magnet D5I (WBS 6.05.02.01)

P-HSR-MAG-D5I.01.01
6.02.03.10
The Dipole shall be a 'D5I' RHIC Magnet in a 'D5I' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 6.92 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.02.01
6.02.03.10
The magnet dipole field (B) shall be 3.45 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/s.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rref=TBD(mm) \ TBD (A).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.02
6.02.03.10
b2=tbd, a2=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.03
6.02.03.10
b3=tbd, a3=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.04
6.02.03.10
b4=tbd, a4=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.05
6.02.03.10
b5=tbd, a5=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.06
6.02.03.10
b6=tbd, a6=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.07
6.02.03.10
b7=tbd, a7=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.08
6.02.03.10
b8=tbd, a8=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.09
6.02.03.10
b9=tbd, a9=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.03.03.10
6.02.03.10
b10=tbd, a10=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

HSR-MAG-D5I EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D5I.03
6.02.03.10
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.04
6.02.03.10
The magnet is a Dipole(D5I) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.05
6.02.03.10
The magnet is a Dipole(D5I) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-D5O : HSR Magnet D5O (WBS 6.05.02.01)

P-HSR-MAG-D5O.01.01
6.02.03.10
The Dipole shall be a 'D5O' RHIC Magnet in a 'D5O' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 8.71 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.02.01
6.02.03.10
The magnet dipole field (B) shall be 3.45 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/s.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Ref#1: Rr=80(mm), Ir=660(A) Ref#2: Rr=80(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.01
6.02.03.10
Ref#1: b1=10000,a1=0 Ref#2: b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.02
6.02.03.10
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81 Ref#2: -0.18<b2<0.38, -3.02<a2<0
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.03
6.02.03.10
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86 Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.04
6.02.03.10
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39 Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.05
6.02.03.10
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27 Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.06
6.02.03.10
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17 Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.07
6.02.03.10
Ref#1: -0.26<b7<0, -0.12<a7<-0.08 Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.08
6.02.03.10
Ref#1: -0.02<b8<0, -0.06<a8<0.04 Ref#2: -0.02<b8<0, -0.06<a8<0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.09
6.02.03.10
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03 Ref#2: 0<b9<0.24, 0.01<a9<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.03.03.10
6.02.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06 Ref#2: 0<b10<0.04, 0.02<a10<0.06
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

HSR-MAG-D5O EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D5O.03
6.02.03.10
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.04
6.02.03.10
The magnet is a Dipole(D5O) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.05
6.02.03.10
The magnet is a Dipole(D5O) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-D6 : HSR Magnet D6 (WBS 6.05.02.01)

P-HSR-MAG-D6.01.01
6.02.03.10
The Dipole shall be a 'D96' RHIC Magnet in a 'D6' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 2.95 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.02.01
6.02.03.10
The magnet dipole field (B) shall be 3.45 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/s.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Ref#1: Rr=80(mm), Ir=660(A) Ref#2: Rr=80(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.01
6.02.03.10
Ref#1: b1=10000,a1=0 Ref#2: b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.02
6.02.03.10
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81 Ref#2: -0.18<b2<0.38, -3.02<a2<0
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.03
6.02.03.10
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86 Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.04
6.02.03.10
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39 Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.05
6.02.03.10
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27 Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.06
6.02.03.10
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17 Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.07
6.02.03.10
Ref#1: -0.26<b7<0, -0.12<a7<-0.08 Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.08
6.02.03.10
Ref#1: -0.02<b8<0, -0.06<a8<0.04 Ref#2: -0.02<b8<0, -0.06<a8<0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.09
6.02.03.10
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03 Ref#2: 0<b9<0.24, 0.01<a9<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.03.03.10
6.02.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06 Ref#2: 0<b10<0.04, 0.02<a10<0.06
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

HSR-MAG-D6 EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D6.03
6.02.03.10
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.04
6.02.03.10
The magnet is a Dipole(D6) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.05
6.02.03.10
The magnet is a Dipole(D6) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-D8(DRG) : HSR Magnet D8/DRG Dipole Magnet (WBS 6.05.02.01)

HSR-MAG-D9 : HSR Magnet D9 (WBS 6.05.02.01)

P-HSR-MAG-D9.01.01
6.02.03.10
The Dipole shall be a 'D96' RHIC Magnet in a 'D9' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 2.95 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.02.01
6.02.03.10
The magnet dipole field (B) shall be 3.45 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/s.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Ref#1: Rr=80(mm), Ir=660(A) Ref#2: Rr=80(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.01
6.02.03.10
Ref#1: b1=10000,a1=0 Ref#2: b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.02
6.02.03.10
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81 Ref#2: -0.18<b2<0.38, -3.02<a2<0
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.03
6.02.03.10
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86 Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.04
6.02.03.10
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39 Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.05
6.02.03.10
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27 Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.06
6.02.03.10
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17 Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.07
6.02.03.10
Ref#1: -0.26<b7<0, -0.12<a7<-0.08 Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.08
6.02.03.10
Ref#1: -0.02<b8<0, -0.06<a8<0.04 Ref#2: -0.02<b8<0, -0.06<a8<0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.09
6.02.03.10
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03 Ref#2: 0<b9<0.24, 0.01<a9<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.03.03.10
6.02.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06 Ref#2: 0<b10<0.04, 0.02<a10<0.06
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

HSR-MAG-D9 EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D9.03
6.02.03.10
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.04
6.02.03.10
The magnet is a Dipole(D9) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.05
6.02.03.10
The magnet is a Dipole(D9) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ1(Q1) : HSR Q1 Magnet(CQ1_QRI_Q1)

P-HSR-MAG-CQ1(Q1).01.01
6.02.03.10
The Quadrupole shall be a 'QRI' RHIC Magnet in a 'CQ1' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.44 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).02.02
6.02.03.10
The magnet gradient field (G) shall be 48.1 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03
6.02.03.10
The magnet is a CQ1(QRI) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=40(mm), Ir=5000A.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.03
6.02.03.10
-0.3<b3<0.58, -0.79<a3<0.33
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.04
6.02.03.10
-0.58<b4<0.3, -0.27<a4<0.23
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.05
6.02.03.10
-0.23<b5<0.27, -0.37<a5<0.21
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.06
6.02.03.10
1.56<b6<2.74, -0.86<a6<-0.62
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.07
6.02.03.10
-0.19<b7<0.25, -0.09<a7<0.49
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.08
6.02.03.10
-0.32<b8<0.04, -0.12<a8<0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.09
6.02.03.10
-0.03<b9<0.07, -0.07<a9<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).03.03.10
6.02.03.10
-0.27<b10<0.07, 0.16<a10<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).04
6.02.03.10
The magnet is a CQ1(QRI) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).05
6.02.03.10
The magnet is a CQ1(QRI) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ1(Q1).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ1(Q1).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ2(LA_KickH) : HSR Q2 Magnet(CQ2_CRI_Q2)

P-HSR-MAG-CQ2(LA_KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRI' RHIC Magnet in a 'CQ2' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B at 40mm,50(A)=0.0446 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03
6.02.03.10
The magnet is a CQ2(CRI) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=40(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03.03.05
6.02.03.10
-120<b5<120, a5~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).03.03.06
6.02.03.10
-100<b6<100, a6~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).04
6.02.03.10
The magnet is a CQ2(CRI) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).05
6.02.03.10
The magnet is a CQ2(CRI) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ2(LA_KickV) : HSR CQ2_CRI_LA_KickH

P-HSR-MAG-CQ2(LA_KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRJ' RHIC Magnet in a 'CQ2' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B at 40mm,50(A)=0.285 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03
6.02.03.10
The magnet is a CQ2(CRJ) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=40(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.03.05
6.02.03.10
-120<b5<120, a5~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).03.03.06
6.02.03.10
-100<b6<100, a6~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).04
6.02.03.10
The magnet is a CQ2(CRJ) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).05
6.02.03.10
The magnet is a CQ2(CRJ) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(LA_KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(LA_KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ2(Q2)

P-HSR-MAG-CQ2(Q2).01.01
6.02.03.10
The Quadrupole shall be a 'QRK' RHIC Magnet in a 'CQ2' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 3.4 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).02.02
6.02.03.10
The magnet gradient field (G) shall be 47.1 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03
6.02.03.10
The magnet is a CQ2(QRK) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=40(mm), Ir=5000A.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.03
6.02.03.10
-0.51<b3<0.35, -0.69<a3<0.33
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.04
6.02.03.10
-1.43<b4<-1.05, -0.09<a4<0.35
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.05
6.02.03.10
-0.14<b5<0.3, -0.23<a5<0.33
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.06
6.02.03.10
0.15<b6<0.91, -0.36<a6<0.18
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.07
6.02.03.10
-0.17<b7<0.21, -0.09<a7<0.35
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.08
6.02.03.10
-0.23<b8<-0.05, -0.11<a8<0.09
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.09
6.02.03.10
-0.05<b9<0.05, -0.06<a9<0.06
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).03.03.10
6.02.03.10
-0.44<b10<-0.3, 0.03<a10<0.07
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).04
6.02.03.10
The magnet is a CQ2(QRK) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).05
6.02.03.10
The magnet is a CQ2(QRK) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ2(Q2).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ2(Q2).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ3(LA_KickH)

P-HSR-MAG-CQ3(LA_KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRL' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B at 40mm,50(A)=0.0446 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03
6.02.03.10
The magnet is a CQ3(CRL) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=40(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03.03.05
6.02.03.10
-120<b5<120, a5~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).03.03.06
6.02.03.10
-100<b6<100, a6~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).04
6.02.03.10
The magnet is a CQ3(CRL) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).05
6.02.03.10
The magnet is a CQ3(CRL) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ3(LA_KickV)

P-HSR-MAG-CQ3(LA_KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRM' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B at 40mm,50(A)=0.285 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03
6.02.03.10
The magnet is a CQ3(CRM) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=40(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.03.05
6.02.03.10
-120<b5<120, a5~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).03.03.06
6.02.03.10
-100<b6<100, a6~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).04
6.02.03.10
The magnet is a CQ3(CRM) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).05
6.02.03.10
The magnet is a CQ3(CRM) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ3(LA_SkewQuad)

P-HSR-MAG-CQ3(LA_SkewQuad).01.01
6.02.03.10
The LA SkewQuad shall be a 'CRK' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03
6.02.03.10
The magnet is a CQ3(CRK) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rref=TBD(mm) \ TBD (A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.02
6.02.03.10
b2=tbd, a2=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.03
6.02.03.10
b3=tbd, a3=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.04
6.02.03.10
b4=tbd, a4=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.05
6.02.03.10
b5=tbd, a5=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.06
6.02.03.10
b6=tbd, a6=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.07
6.02.03.10
b7=tbd, a7=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.08
6.02.03.10
b8=tbd, a8=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.09
6.02.03.10
b9=tbd, a9=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).03.03.10
6.02.03.10
b10=tbd, a10=tbd
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).04
6.02.03.10
The magnet is a CQ3(CRK) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).05
6.02.03.10
The magnet is a CQ3(CRK) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(LA_SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ3(Q3)

P-HSR-MAG-CQ3(Q3).01.01
6.02.03.10
The Quadrupole shall be a 'QRJ' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 2.1 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).02.02
6.02.03.10
The magnet gradient field (G) shall be 47.3 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03
6.02.03.10
The magnet is a CQ3(QRJ) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=40(mm), Ir=5000A.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.03
6.02.03.10
-0.72<b3<0.74, -0.19<a3<0.99
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.04
6.02.03.10
-0.85<b4<0.17, -0.21<a4<0.45
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.05
6.02.03.10
-0.46<b5<0, -0.09<a5<0.21
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.06
6.02.03.10
1.54<b6<1.8, -0.34<a6<-0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.07
6.02.03.10
-0.1<b7<0.24, -0.1<a7<0.28
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.08
6.02.03.10
-0.13<b8<0.13, -0.08<a8<0.06
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.09
6.02.03.10
-0.01<b9<0.11, -0.02<a9<0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).03.03.10
6.02.03.10
-0.34<b10<-0.28, 0.06<a10<0.1
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).04
6.02.03.10
The magnet is a CQ3(QRJ) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).05
6.02.03.10
The magnet is a CQ3(QRJ) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ3(Q3).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ3(Q3).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ4(KickH)

P-HSR-MAG-CQ4(KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRF' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).03
6.02.03.10
The magnet is a CQ4(CRF) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).04
6.02.03.10
The magnet is a CQ4(CRF) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).05
6.02.03.10
The magnet is a CQ4(CRF) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ4(KickV)

P-HSR-MAG-CQ4(KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).03
6.02.03.10
The magnet is a CQ4(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).04
6.02.03.10
The magnet is a CQ4(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).05
6.02.03.10
The magnet is a CQ4(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ4(Q4)

P-HSR-MAG-CQ4(Q4).01.01
6.02.03.10
The Quadrupole shall be a 'QR4' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.83 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03
6.02.03.10
The magnet is a CQ4(QR4) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).04
6.02.03.10
The magnet is a CQ4(QR4) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).05
6.02.03.10
The magnet is a CQ4(QR4) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ4(Q4T)

P-HSR-MAG-CQ4(Q4T).01.01
6.02.03.10
The Quadrupole shall be a 'QRT' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).02.02
6.02.03.10
The magnet gradient field (G) shall be 29.4 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03
6.02.03.10
The magnet is a CQ4(QRT) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=25(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.03.03
6.02.03.10
0.01<b3<1.38, -2.35<a3<0.67
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.03.04
6.02.03.10
-4.56<b4<-3.4, -0.24<a4<0.16
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.03.05
6.02.03.10
-0.2<b5<0.14, -0.13<a5<0.26
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.03.06
6.02.03.10
-10.47<b6<-9.97, -0.27<a6<-0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).03.03.10
6.02.03.10
0.09<b10<-1.55, 0.03<a10<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).04
6.02.03.10
The magnet is a CQ4(QRT) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).05
6.02.03.10
The magnet is a CQ4(QRT) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(Q4T).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(Q4T).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ4(SkewQuad)

P-HSR-MAG-CQ4(SkewQuad).01.01
6.02.03.10
The SkewQuad shall be a 'CRF' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).03
6.02.03.10
The magnet is a CQ4(CRF) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).03.03.02
6.02.03.10
b2=0,a2=10000
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).04
6.02.03.10
The magnet is a CQ4(CRF) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).05
6.02.03.10
The magnet is a CQ4(CRF) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ4(SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ4(SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ5(GammaTQuad)

P-HSR-MAG-CQ5(GammaTQuad).01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).03
6.02.03.10
The magnet is a CQ5(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).04
6.02.03.10
The magnet is a CQ5(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).05
6.02.03.10
The magnet is a CQ5(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(GammaTQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(GammaTQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ5(KickH)

P-HSR-MAG-CQ5(KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).03
6.02.03.10
The magnet is a CQ5(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).04
6.02.03.10
The magnet is a CQ5(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).05
6.02.03.10
The magnet is a CQ5(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ5(KickV)

P-HSR-MAG-CQ5(KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).03
6.02.03.10
The magnet is a CQ5(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).04
6.02.03.10
The magnet is a CQ5(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).05
6.02.03.10
The magnet is a CQ5(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ5(Q5)

P-HSR-MAG-CQ5(Q5).01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.13 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03
6.02.03.10
The magnet is a CQ5(QRG) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).04
6.02.03.10
The magnet is a CQ5(QRG) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).05
6.02.03.10
The magnet is a CQ5(QRG) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ5(Q5T)

P-HSR-MAG-CQ5(Q5T).01.01
6.02.03.10
The Trim quadrupole shall be a 'QRT' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).02.02
6.02.03.10
The magnet gradient field (G) shall be 29.4 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03
6.02.03.10
The magnet is a CQ5(QRT) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=25(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.03.03
6.02.03.10
0.01<b3<1.38, -2.35<a3<0.67
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.03.04
6.02.03.10
-4.56<b4<-3.4, -0.24<a4<0.16
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.03.05
6.02.03.10
-0.2<b5<0.14, -0.13<a5<0.26
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.03.06
6.02.03.10
-10.47<b6<-9.97, -0.27<a6<-0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).03.03.10
6.02.03.10
0.09<b10<-1.55, 0.03<a10<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).04
6.02.03.10
The magnet is a CQ5(QRT) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).05
6.02.03.10
The magnet is a CQ5(QRT) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(Q5T).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(Q5T).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ5(SkewQuad)

P-HSR-MAG-CQ5(SkewQuad).01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).03
6.02.03.10
The magnet is a CQ5(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).03.03.02
6.02.03.10
b2=0,a2=10000
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).04
6.02.03.10
The magnet is a CQ5(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).05
6.02.03.10
The magnet is a CQ5(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ5(SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ5(SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ6(GammaTQuad)

P-HSR-MAG-CQ6(GammaTQuad).01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).03
6.02.03.10
The magnet is a CQ6(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).04
6.02.03.10
The magnet is a CQ6(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).05
6.02.03.10
The magnet is a CQ6(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(GammaTQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(GammaTQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ6(KickH)

P-HSR-MAG-CQ6(KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).03
6.02.03.10
The magnet is a CQ6(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).04
6.02.03.10
The magnet is a CQ6(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).05
6.02.03.10
The magnet is a CQ6(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ6(KickV)

P-HSR-MAG-CQ6(KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).03
6.02.03.10
The magnet is a CQ6(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).04
6.02.03.10
The magnet is a CQ6(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).05
6.02.03.10
The magnet is a CQ6(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ6(Q6)

P-HSR-MAG-CQ6(Q6).01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.13 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03
6.02.03.10
The magnet is a CQ6(QRG) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).04
6.02.03.10
The magnet is a CQ6(QRG) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).05
6.02.03.10
The magnet is a CQ6(QRG) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ6(Q6T)

P-HSR-MAG-CQ6(Q6T).01.01
6.02.03.10
The Quadrupole shall be a 'QRT' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).02.02
6.02.03.10
The magnet gradient field (G) shall be 29.4 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03
6.02.03.10
The magnet is a CQ6(QRT) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=25(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.03.03
6.02.03.10
0.01<b3<1.38, -2.35<a3<0.67
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.03.04
6.02.03.10
-4.56<b4<-3.4, -0.24<a4<0.16
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.03.05
6.02.03.10
-0.2<b5<0.14, -0.13<a5<0.26
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.03.06
6.02.03.10
-10.47<b6<-9.97, -0.27<a6<-0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).03.03.10
6.02.03.10
0.09<b10<-1.55, 0.03<a10<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).04
6.02.03.10
The magnet is a CQ6(QRT) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).05
6.02.03.10
The magnet is a CQ6(QRT) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(Q6T).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(Q6T).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ6(SkewQuad)

P-HSR-MAG-CQ6(SkewQuad).01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).03
6.02.03.10
The magnet is a CQ6(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).03.03.02
6.02.03.10
b2=0,a2=10000
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).04
6.02.03.10
The magnet is a CQ6(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).05
6.02.03.10
The magnet is a CQ6(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ6(SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ6(SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ7(GammaTQuad)

P-HSR-MAG-CQ7(GammaTQuad).01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).03
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).04
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).05
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(GammaTQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(GammaTQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ7(KickH)

P-HSR-MAG-CQ7(KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).03
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).04
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).05
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ7(KickV)

P-HSR-MAG-CQ7(KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).03
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).04
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).05
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ7(Q7)

P-HSR-MAG-CQ7(Q7).01.01
6.02.03.10
The Quadrupole shall be a 'QR7' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.95 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03
6.02.03.10
The magnet is a CQ7(QR7) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).04
6.02.03.10
The magnet is a CQ7(QR7) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).05
6.02.03.10
The magnet is a CQ7(QR7) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(Q7).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(Q7).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ7(SkewQuad)

P-HSR-MAG-CQ7(SkewQuad).01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).03
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).03.03.02
6.02.03.10
b2=0,a2=10000
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).04
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).05
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ7(SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ7(SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ8(GammaTQuad)

P-HSR-MAG-CQ8(GammaTQuad).01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).03
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).04
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).05
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(GammaTQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(GammaTQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ8(KickH)

P-HSR-MAG-CQ8(KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).03
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).04
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).05
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ8(KickV)

P-HSR-MAG-CQ8(KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).03
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).04
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).05
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ8(Q8)

P-HSR-MAG-CQ8(Q8).01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.13 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03
6.02.03.10
The magnet is a CQ8(QRG) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).04
6.02.03.10
The magnet is a CQ8(QRG) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).05
6.02.03.10
The magnet is a CQ8(QRG) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(Q8).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(Q8).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ8(SkewQuad)

P-HSR-MAG-CQ8(SkewQuad).01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).03
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).03.03.02
6.02.03.10
b2=0,a2=10000
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).04
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).05
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ8(SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ8(SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ9(KickH)

P-HSR-MAG-CQ9(KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRF' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).03
6.02.03.10
The magnet is a CQ9(CRF) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).04
6.02.03.10
The magnet is a CQ9(CRF) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).05
6.02.03.10
The magnet is a CQ9(CRF) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ9(KickV)

P-HSR-MAG-CQ9(KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).03
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).04
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).05
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ9(Q9)

P-HSR-MAG-CQ9(Q9).01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.13 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03
6.02.03.10
The magnet is a CQ9(QRG) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).04
6.02.03.10
The magnet is a CQ9(QRG) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).05
6.02.03.10
The magnet is a CQ9(QRG) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(Q9).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(Q9).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQ9(SkewQuad)

P-HSR-MAG-CQ9(SkewQuad).01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).03
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).03.03.02
6.02.03.10
b2=0,a2=10000
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).04
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).05
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQ9(SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQ9(SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQS(GammaTQuad)

P-HSR-MAG-CQS(GammaTQuad).01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).03
6.02.03.10
The magnet is a CQS(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).04
6.02.03.10
The magnet is a CQS(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).05
6.02.03.10
The magnet is a CQS(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(GammaTQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(GammaTQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQS(KickH)

P-HSR-MAG-CQS(KickH).01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRF' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).03
6.02.03.10
The magnet is a CQS(CRF) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).03.03.02
6.02.03.10
b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).04
6.02.03.10
The magnet is a CQS(CRF) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).05
6.02.03.10
The magnet is a CQS(CRF) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickH).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickH).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQS(KickV)

P-HSR-MAG-CQS(KickV).01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).02.03
6.02.03.10
The magnet ramp rate shall be TBD.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).03
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).03.03.01
6.02.03.10
b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).03.03.02
6.02.03.10
-30<b2<30, a2~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).04
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).05
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(KickV).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(KickV).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQS(Q9)

P-HSR-MAG-CQS(Q9).01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.13 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03
6.02.03.10
The magnet is a CQS(QRG) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).04
6.02.03.10
The magnet is a CQS(QRG) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).05
6.02.03.10
The magnet is a CQS(QRG) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(Q9).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(Q9).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQS(SkewQuad)

P-HSR-MAG-CQS(SkewQuad).01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).03
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).03.03.01
6.02.03.10
-30<b1<30, a1~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).03.03.02
6.02.03.10
b2=0,a2=10000
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).03.03.03
6.02.03.10
-70<b3<70, a3~0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).04
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).05
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SkewQuad).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SkewQuad).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-CQS(SXT)

P-HSR-MAG-CQS(SXT).01.01
6.02.03.10
The Sextupole shall be a 'SRE' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).02.02
6.02.03.10
The magnet gradient field (G) shall be 1150 (T/m).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m^2.s.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03
6.02.03.10
The magnet is a CQS(SRE) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=25(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.03.03
6.02.03.10
b3=10000,a3=0
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.03.04
6.02.03.10
-1.41<b3<0.87, -2.88<a3<2.76
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.03.05
6.02.03.10
-5.95<b4<-3.21, -1.31<a4<1.03
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.03.06
6.02.03.10
0.03<b5<0.45, -0.86<a5<1.16
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.03.07
6.02.03.10
-3.22<b6<-2.12, -0.66<a6<0.42
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).03.03.09
6.02.03.10
-90.49<b8<-90.11, -0.43<a8<-0.19
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).04
6.02.03.10
The magnet is a CQS(SRE) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).05
6.02.03.10
The magnet is a CQS(SRE) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-CQS(SXT).07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-CQS(SXT).10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-D8

P-HSR-MAG-D8.01.01
6.02.03.10
The Dipole shall be a 'DR8 / DRG' RHIC Magnet in a 'D8' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 9.45 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.02.01
6.02.03.10
The magnet dipole field (B) shall be 0.401 (T) 3.458 (T).
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/s.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Ref#1: Rr=80(mm), Ir=660(A) Ref#2: Rr=80(mm), Ir=5000(A).
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.01
6.02.03.10
Ref#1: b1=10000,a1=0 Ref#2: b1=10000,a1=0
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.02
6.02.03.10
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81 Ref#2: -0.18<b2<0.38, -3.02<a2<0
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.03
6.02.03.10
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86 Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.04
6.02.03.10
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39 Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.05
6.02.03.10
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27 Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.06
6.02.03.10
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17 Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.07
6.02.03.10
Ref#1: -0.26<b7<0, -0.12<a7<-0.08 Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.08
6.02.03.10
Ref#1: -0.02<b8<0, -0.06<a8<0.04 Ref#2: -0.02<b8<0, -0.06<a8<0.04
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.09
6.02.03.10
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03 Ref#2: 0<b9<0.24, 0.01<a9<0.03
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.03.03.10
6.02.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06 Ref#2: 0<b10<0.04, 0.02<a10<0.06
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
02/09/2026
Approved
FALSE

HSR-MAG-D8 EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D8.03
6.02.03.10
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.04
6.02.03.10
The magnet is a Dipole(D8) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.05
6.02.03.10
The magnet is a Dipole(D8) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

HSR-MAG-NC

HSR-MAG-NC-D50

R-HSR-MAG-NC-D50.01.01
6.02.02.03.05
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the HSR Correctors.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.01.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location with sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the HSR corrector magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.02.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with standard polarity labels.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.02.02
6.02.02.03.05
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.03.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with labeling of the connection for thermal protection.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.04.01
6.02.02.03.05
The magnet shall use the existing girder design and CAD model to ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.05.01
6.02.02.03.05
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.05.02
6.02.02.03.05
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the HSR beamline which satisfies the Magnet Group design.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.05.03
6.02.02.03.05
The Magnet Group will provide supports for beam pipes.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.05.04
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.06.01
6.02.02.03.05
The magnet shall use the existing the volume within the tunnel required by the magnets and girders
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D50.06.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
In Process
FALSE

HSR-MAG-NC-D5I

R-HSR-MAG-NC-D5I.01.01
6.02.02.03.05
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the HSR Correctors.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.01.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location with sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the HSR corrector magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.02.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with standard polarity labels.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.02.02
6.02.02.03.05
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.03.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with labeling of the connection for thermal protection.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.04.01
6.02.02.03.05
The magnet shall use the existing girder design and CAD model to ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.05.01
6.02.02.03.05
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.05.02
6.02.02.03.05
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the HSR beamline which satisfies the Magnet Group design.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.05.03
6.02.02.03.05
The Magnet Group will provide supports for beam pipes.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.05.04
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.06.01
6.02.02.03.05
The magnet shall use the existing the volume within the tunnel required by the magnets and girders
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D5I.06.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
In Process
FALSE

HSR-MAG-NC-D6

R-HSR-MAG-NC-D6.01.01
6.02.02.03.05
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the HSR Correctors.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.01.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location with sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the HSR corrector magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.02.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with standard polarity labels.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.02.02
6.02.02.03.05
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.03.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with labeling of the connection for thermal protection.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.04.01
6.02.02.03.05
The magnet shall use the existing girder design and CAD model to ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.05.01
6.02.02.03.05
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.05.02
6.02.02.03.05
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the HSR beamline which satisfies the Magnet Group design.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.05.03
6.02.02.03.05
The Magnet Group will provide supports for beam pipes.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.05.04
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.06.01
6.02.02.03.05
The magnet shall use the existing the volume within the tunnel required by the magnets and girders
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D6.06.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
In Process
FALSE

HSR-MAG-NC-D9

R-HSR-MAG-NC-D9.01.01
6.02.02.03.05
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the HSR Correctors.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.01.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location with sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the HSR corrector magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.02.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with standard polarity labels.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.02.02
6.02.02.03.05
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.03.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with labeling of the connection for thermal protection.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.04.01
6.02.02.03.05
The magnet shall use the existing girder design and CAD model to ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.05.01
6.02.02.03.05
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.05.02
6.02.02.03.05
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the HSR beamline which satisfies the Magnet Group design.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.05.03
6.02.02.03.05
The Magnet Group will provide supports for beam pipes.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.05.04
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.06.01
6.02.02.03.05
The magnet shall use the existing volume within the tunnel required by the magnets and girders
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-D9.06.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
In Process
FALSE

HSR-MAG-NC-DRG

R-HSR-MAG-NC-DRG.01.01
6.02.02.03.05
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the HSR Correctors.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.01.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location with sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the HSR corrector magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.02.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with standard polarity labels.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.02.02
6.02.02.03.05
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.03.01
6.02.02.03.05
The Magnet Group shall provide the existing terminal block design with labeling of the connection for thermal protection.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.04.01
6.02.02.03.05
The magnet shall use the existing girder design and CAD model to ensure the design does not interfere with magnet or cable installation around the beampipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.05.01
6.02.02.03.05
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.05.02
6.02.02.03.05
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the HSR beamline which satisfies the Magnet Group design.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.05.03
6.02.02.03.05
The Magnet Group will provide supports for beam pipes.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.05.04
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.06.01
6.02.02.03.05
The magnet shall use the existing volume within the tunnel required by the magnets and girders
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DRG.06.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
In Process
FALSE

HSR-MAG-NC-DW0

R-HSR-MAG-NC-DW0.01.01
6.02.02.03.05
The Magnet Group shall provide the requirements to the Infrastructure Group that defines the building and utilities along with associated heatload analyses for the HSR Correctors.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.01.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location with sufficiently cooled space within the existing RHIC tunnel that satisfies the requirements of the HSR corrector magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.02.01
6.02.02.03.05
The Power Supply Group shall purchase the cables that go from the Power Supply to the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.02.02
6.02.02.03.05
The Power Supply Group shall make connections of the main winding magnet power cables at the magnet terminals and power supply ends.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.02.03
6.02.02.03.05
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet power circuit.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.02.04
6.02.02.03.05
The Power Supply Group shall provide a power supply to be utilized by the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.02.05
6.02.02.03.05
The Magnet Group shall provide a terminal block with standard polarity labels to facilitate installation of the main winding magnet power cables.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.02.06
6.02.02.03.05
The Magnet Group shall provide a electrical and thermal parameters to the Power Supply Group to be utilized in selecting necessary power supply needs.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.02.07
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for cable installation from the power supply to the magnets by the appropriate technical support group.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.03.01
6.02.02.03.05
The Power Supply Group shall purchase the cables that go from the thermal switch on the magnet to the Power Supply.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.03.02
6.02.02.03.05
The Power Supply Group shall make connections of the thermal switch cables at the magnet and Power Supply ends.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.03.03
6.02.02.03.05
The Power Supply Group shall create schematics with the number of cables and connectors made to the magnet protection circuit(s).
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.03.04
6.02.02.03.05
The Magnet Group shall provide the terminal block with labeling to facilitate installation of the connection for thermal protection.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.03.05
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing cabling from the thermal switch lugs on the magnet to the Power Supply Group by the appropriate technical support group.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.04.01
6.02.02.03.05
The Mechanical Design Group shall provide a girder design and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet or cable installation around the beampipe
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.04.02
6.02.02.03.05
The BNL Magnet Group shall procure the girders for the Accelerator Installation WBS CAM to install.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.04.03
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing the magnets on the girders.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.05.01
6.02.02.03.05
The Vacuum Group shall design the beampipe integration to the magnets.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.05.02
6.02.02.03.05
The Vacuum Group will provide temporary thermal couples to the magnets and incorporate the defined thermal design limits for the magnet into its bakeout procedure for the HSR beamline which satisfies the Magnet Group design.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.05.03
6.02.02.03.05
The Magnet Group will provide supports for beam pipes.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.05.04
6.02.02.03.05
ASR System Installation and Final Integration shall provide funding and scheduling for installing the beampipe through the magnets and installing the magnets by the appropriate technical support groups.
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.06.01
6.02.02.03.05
The Mechanical Design Group shall provide the volume within the tunnel required by the magnets and girders
01/08/2026
In Process
FALSE

R-HSR-MAG-NC-DW0.06.02
6.02.02.03.05
The HSR Physics Group will provide the arrangement location for the magnets and girders
01/08/2026
In Process
FALSE

HSR-MAG-SC

HSR-MAG-SC-CQS

R-HSR-MAG-SC-CQS.01.01
6.02.03.10
The magnet shall use the existing design of the CQS (C,Q,S) cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.01.02
6.02.03.10
The magnet shall use the existing design of the CQS (C,Q,S) cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.01.03
6.02.03.10
The cryogenics group shall define the schematics with the piping and connectors needed to connect the CQS cyrostat to the 4.55 K distribution system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.02.01
6.02.03.10
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.03.01
6.02.03.10
The cryogenics group shall provide the design details for the CQS (C,Q,S) cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.03.02
6.02.03.10
The power supply group provide create electrical schematics for the CQS (C,Q,S) cryostat with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.05.01
6.02.03.10
The power supply group shall provide the quench protection and detection design details for the CQS (C,Q,S) cryostat to define system integration.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.07.01
6.02.03.10
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.07.02
6.02.03.10
The magnet design team shall provide magnet instrumentation design details required by the CQS (C,Q,S) cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.07.03
6.02.03.10
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.08.01
6.02.03.10
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron beam pipe in the CQS cryostat cold mass.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.09.01
6.02.03.10
The magnet shall use the existing design of the CQS (C,Q,S) mechanical connections between CQS cryostat and the bellow as well as the beam pipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.10.01
6.02.03.10
The magnet shall use the existing design of the CQS (C,Q,S) and provide the volume within the tunnel to be occupied by the CQS cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.10.02
6.02.03.10
The magnet shall use the existing design of the CQS (C,Q,S) for fiducial marks positioning for the CQS cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the CQS cryostat center and its alignment wrt the HSR beamline.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-CQS.10.03
6.02.03.10
The physics group shall provide the allocated spatial location based on the lattice for the CQS cryostat.
01/08/2026
In Process
FALSE

HSR-MAG-SC-Q4

R-HSR-MAG-SC-Q4.01.01
6.02.03.10
The magnet shall use the existing design of the Q4 (C,Q,T) cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.01.02
6.02.03.10
The magnet shall use the existing design of the Q4 (C,Q,T) cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.01.03
6.02.03.10
The cryogenics group shall define the schematics with the piping and connectors needed to connect the Q4 cyrostat to the 4.55 K distribution system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.02.01
6.02.03.10
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.03.01
6.02.03.10
The cryogenics group shall provide the design details for the Q4 (C,Q,T) cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.03.02
6.02.03.10
The power supply group provide create electrical schematics for the Q4 (C,Q,T) cryostat with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.05.01
6.02.03.10
The power supply group shall provide the quench protection and detection design details for the Q4 (C,Q,T) cryostat to define system integration.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.07.01
6.02.03.10
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.07.02
6.02.03.10
The magnet design team shall provide magnet instrumentation design details required by the Q4 (C,Q,T) cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.07.03
6.02.03.10
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.08.01
6.02.03.10
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron beam pipe in the Q4 cryostat cold mass.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.09.01
6.02.03.10
The magnet shall use the existing design of the Q4 (C,Q,T) mechanical connections between Q4 cryostat and the bellow as well as the beam pipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.10.01
6.02.03.10
The magnet shall use the existing design of the Q4 (C,Q,T) and provide the volume within the tunnel to be occupied by the Q4 cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.10.02
6.02.03.10
The magnet shall use the existing design of the Q4 (C,Q,T) for fiducial marks positioning for the Q4 cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the Q4 cryostat center and its alignment wrt the HSR beamline.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q4.10.03
6.02.03.10
The physics group shall provide the allocated spatial location based on the lattice for the Q4 cryostat.
01/08/2026
In Process
FALSE

HSR-MAG-SC-Q5

R-HSR-MAG-SC-Q5.01.01
6.02.03.10
The magnet shall use the existing design of the Q5 (C,Q,T) cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.01.02
6.02.03.10
The magnet shall use the existing design of the Q5 (C,Q,T) cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.01.03
6.02.03.10
The cryogenics group shall define the schematics with the piping and connectors needed to connect the Q5 cyrostat to the 4.55 K distribution system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.02.01
6.02.03.10
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.03.01
6.02.03.10
The cryogenics group shall provide the design details for the Q5 (C,Q,T) cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.03.02
6.02.03.10
The power supply group provide create electrical schematics for the Q5 (C,Q,T) cryostat with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.05.01
6.02.03.10
The power supply group shall provide the quench protection and detection design details for the Q5 (C,Q,T) cryostat to define system integration.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.07.01
6.02.03.10
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.07.02
6.02.03.10
The magnet design team shall provide magnet instrumentation design details required by the Q5 (C,Q,T) cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.07.03
6.02.03.10
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.08.01
6.02.03.10
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron beam pipe in the Q5 cryostat cold mass.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.09.01
6.02.03.10
The magnet shall use the existing design of the Q5 (C,Q,T) mechanical connections between Q5 cryostat and the bellow as well as the beam pipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.10.01
6.02.03.10
The magnet shall use the existing design of the Q5 (C,Q,T) and provide the volume within the tunnel to be occupied by the Q5 cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.10.02
6.02.03.10
The magnet shall use the existing design of the Q5 (C,Q,T) for fiducial marks positioning for the Q5 cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the Q5 cryostat center and its alignment wrt the HSR beamline.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q5.10.03
6.02.03.10
The physics group shall provide the allocated spatial location based on the lattice for the Q5 cryostat.
01/08/2026
In Process
FALSE

HSR-MAG-SC-Q6

R-HSR-MAG-SC-Q6.01.01
6.02.03.10
The magnet shall use the existing design of the Q6 (C,Q,T) cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.01.02
6.02.03.10
The magnet shall use the existing design of the Q6 (C,Q,T) cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.01.03
6.02.03.10
The cryogenics group shall define the schematics with the piping and connectors needed to connect the Q6 cyrostat to the 4.55 K distribution system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.02.01
6.02.03.10
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.03.01
6.02.03.10
The cryogenics group shall provide the design details for the Q6 (C,Q,T) cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.03.02
6.02.03.10
The power supply group provide create electrical schematics for the Q6 (C,Q,T) cryostat with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.05.01
6.02.03.10
The power supply group shall provide the quench protection and detection design details for the Q6 (C,Q,T) cryostat to define system integration.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.07.01
6.02.03.10
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.07.02
6.02.03.10
The magnet design team shall provide magnet instrumentation design details required by the Q6 (C,Q,T) cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.07.03
6.02.03.10
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.08.01
6.02.03.10
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron beam pipe in the Q6 cryostat cold mass.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.09.01
6.02.03.10
The magnet shall use the existing design of the Q6 (C,Q,T) mechanical connections between Q6 cryostat and the bellow as well as the beam pipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.10.01
6.02.03.10
The magnet shall use the existing design of the Q6 (C,Q,T) and provide the volume within the tunnel to be occupied by the Q6 cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.10.02
6.02.03.10
The magnet shall use the existing design of the Q6 (C,Q,T) for fiducial marks positioning for the Q6 cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the Q6 cryostat center and its alignment wrt the HSR beamline.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q6.10.03
6.02.03.10
The physics group shall provide the allocated spatial location based on the lattice for the Q6 cryostat.
01/08/2026
In Process
FALSE

HSR-MAG-SC-Q7

R-HSR-MAG-SC-Q7.01.01
6.02.03.10
The magnet shall use the existing design of the Q7 (C,Q) cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.01.02
6.02.03.10
The magnet shall use the existing design of the Q7 (C,Q) cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.01.03
6.02.03.10
The cryogenics group shall define the schematics with the piping and connectors needed to connect the Q7 cyrostat to the 4.55 K distribution system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.02.01
6.02.03.10
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.03.01
6.02.03.10
The cryogenics group shall provide the design details for the Q7 (C,Q) cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.03.02
6.02.03.10
The power supply group provide create electrical schematics for the Q7 (C,Q) cryostat with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.05.01
6.02.03.10
The power supply group shall provide the quench protection and detection design details for the Q7 (C,Q) cryostat to define system integration.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.07.01
6.02.03.10
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.07.02
6.02.03.10
The magnet design team shall provide magnet instrumentation design details required by the Q7 (C,Q) cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.07.03
6.02.03.10
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.08.01
6.02.03.10
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron beam pipe in the Q7 cryostat cold mass.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.09.01
6.02.03.10
The magnet shall use the existing design of the Q7 (C,Q) mechanical connections between Q7 cryostat and the bellow as well as the beam pipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.10.01
6.02.03.10
The magnet shall use the existing design of the Q7 (C,Q) and provide the volume within the tunnel to be occupied by the Q7 cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.10.02
6.02.03.10
The magnet shall use the existing design of the Q7 (C,Q) for fiducial marks positioning for the Q7 cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the Q7 cryostat center and its alignment wrt the HSR beamline.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q7.10.03
6.02.03.10
The physics group shall provide the allocated spatial location based on the lattice for the Q7 cryostat.
01/08/2026
In Process
FALSE

HSR-MAG-SC-Q8

R-HSR-MAG-SC-Q8.01.01
6.02.03.10
The magnet shall use the existing design of the Q8 (C,Q,S) cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.01.02
6.02.03.10
The magnet shall use the existing design of the Q8 (C,Q,S) cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.01.03
6.02.03.10
The cryogenics group shall define the schematics with the piping and connectors needed to connect the Q8 cyrostat to the 4.55 K distribution system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.02.01
6.02.03.10
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.03.01
6.02.03.10
The cryogenics group shall provide the design details for the Q8 (C,Q,S) cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.03.02
6.02.03.10
The power supply group provide create electrical schematics for the Q8 (C,Q,S) cryostat with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.05.01
6.02.03.10
The power supply group shall provide the quench protection and detection design details for the Q8 (C,Q,S) cryostat to define system integration.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.07.01
6.02.03.10
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.07.02
6.02.03.10
The magnet design team shall provide magnet instrumentation design details required by the Q8 (C,Q,S) cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.07.03
6.02.03.10
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.08.01
6.02.03.10
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron beam pipe in the Q8 cryostat cold mass.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.09.01
6.02.03.10
The magnet shall use the existing design of the Q8 (C,Q,S) mechanical connections between Q8 cryostat and the bellow as well as the beam pipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.10.01
6.02.03.10
The magnet shall use the existing design of the Q8 (C,Q,S) and provide the volume within the tunnel to be occupied by the Q8 cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.10.02
6.02.03.10
The magnet shall use the existing design of the Q8 (C,Q,S) for fiducial marks positioning for the Q8 cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the Q8 cryostat center and its alignment wrt the HSR beamline.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q8.10.03
6.02.03.10
The physics group shall provide the allocated spatial location based on the lattice for the Q8 cryostat.
01/08/2026
In Process
FALSE

HSR-MAG-SC-Q9

R-HSR-MAG-SC-Q9.01.01
6.02.03.10
The magnet shall use the existing design of the Q9 (C,Q,-) cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.01.02
6.02.03.10
The magnet shall use the existing design of the Q9 (C,Q,-) cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.01.03
6.02.03.10
The cryogenics group shall define the schematics with the piping and connectors needed to connect the Q9 cyrostat to the 4.55 K distribution system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.02.01
6.02.03.10
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.03.01
6.02.03.10
The cryogenics group shall provide the design details for the Q9 (C,Q,-) cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.03.02
6.02.03.10
The power supply group provide create electrical schematics for the Q9 (C,Q,-) cryostat with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.05.01
6.02.03.10
The power supply group shall provide the quench protection and detection design details for the Q9 (C,Q,-) cryostat to define system integration.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.07.01
6.02.03.10
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.07.02
6.02.03.10
The magnet design team shall provide magnet instrumentation design details required by the Q9 (C,Q,-) cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.07.03
6.02.03.10
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.08.01
6.02.03.10
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron beam pipe in the Q9 cryostat cold mass.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.09.01
6.02.03.10
The magnet shall use the existing design of the Q9 (C,Q,-) mechanical connections between Q9 cryostat and the bellow as well as the beam pipe.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.10.01
6.02.03.10
The magnet shall use the existing design of the Q9 (C,Q,-) and provide the volume within the tunnel to be occupied by the Q9 cryostat.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.10.02
6.02.03.10
The magnet shall use the existing design of the Q9 (C,Q,-) for fiducial marks positioning for the Q9 cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the Q9 cryostat center and its alignment wrt the HSR beamline.
01/08/2026
In Process
FALSE

R-HSR-MAG-SC-Q9.10.03
6.02.03.10
The physics group shall provide the allocated spatial location based on the lattice for the Q9 cryostat.
01/08/2026
In Process
FALSE

HSR-MAG-SCMR

HSR-MAG-SCMR-SNAKE

R-HSR-MAG-SCMR-SNAKE.01.01
6.02.03.10.04
The mechanical design group shall provide the HLX refurbished siberian snake magnet cryostat design with mating pipe connections from the cryostat to its neighboring cryogenic magnets.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.01.02
6.02.03.10.04
ASR System Installation and Final Integration shall provide funding and scheduling to install the HLX siberian snake magnet cryogenic pipe connections by the appropriate technical support group which satisfies the cryogenics group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.01.03
6.02.03.10.04
The cryogenics Group shall leak check the final pipe connections from the HLX siberian snake magnet to the 4K cryogenic distribution system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.02.01
6.02.03.10.04
The instrumentation group shall define the HSR beam instrumentation design details required for the mechanical design group to incorporate into the HLX siberian snake magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.02.02
6.02.03.10.04
The mechanical design group shall provide the beam instrumentation design to incorporate the instrumentation groups design into HLX siberian snake magnet insulating vacuum.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.02.03
6.02.03.10.04
The SMD group shall incorporate the mechanical groups insulating vacuum housing design into the HLX siberian snake magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.02.04
6.02.03.10.04
The SMD group shall leak check the HLX siberian snake magnet insulating housing.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.03.01
6.02.03.10.04
Reference related beam position monitor interface document for vacuum beamline interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.04.01
6.02.03.10.04
Reference related beam position monitor interface document for cryostat feedthrough interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.04.02
6.02.03.10.04
The mechanical design group shall provide the design details to incorporate the instrumentation design into the HLX siberian snake magnet
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.04.03
6.02.03.10.04
The SMD group shall incorporate the mechanical groups feedthrough design of the insulating housing into the HLX siberian snake magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.04.04
6.02.03.10.04
The Instrumentation group shall perform electrical testing at room temperature to verify the HLX siberian snake magnet instrumentation lead connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.06.01
6.02.03.10.04
The SMD shall provide the current lead design details for the HLX siberian snake magnet to provide system integration.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.06.02
6.02.03.10.04
The cryogenics group shall provide the design details for the HLX siberian snake magnet current lead integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.06.03
6.02.03.10.04
The power supply group provide create schematics for the HLX siberian snake magnet with the number of cables and connectors needed to the power all the magnet power circuits.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.06.04
6.02.03.10.04
The power supply group shall purchase the cables that go from the power supply to the current lead connections for the HLX siberian snake magnets, if required.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.06.05
6.02.03.10.04
The SMD group shall perform electrical testing to verify at room temperature the HLX siberian snake magnet\current lead connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.06.06
6.02.03.10.04
ASR System Installation and Final Integration shall provide funding and scheduling to install HLX siberian snake magnet current lead connections by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.06.07
6.02.03.10.04
The cryogenics group shall leak check the final pipe connections from the HLX siberian snake cryostat to the 4 K cryogenic distribution system for the current leads.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.07.01
6.02.03.10.04
The power supply group shall provide the quench protection/detection design details for the HLX siberian snake magnet to define system integration.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.07.02
6.02.03.10.04
The SMD group shall perform electrical testing at room temperature to verify the HLX siberian snake magnet quench protection/detection lead connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.07.03
6.02.03.10.04
The power supply group shall provide schematics with the number of cables and connectors needed to connect all quench protection/detection circuits.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.07.04
6.02.03.10.04
The power supply group shall purchase any cabling to go from the power supply to any quench protection /detection equipment needed for the HLX siberian snake magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.07.05
6.02.03.10.04
The power supply group shall provide all quench protection system and ancillary components to be utilized by the HLX siberian snake magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.07.06
6.02.03.10.04
ASR System Installation and Final Integration shall provide funding and scheduling to install HLX siberian snake magnet quench protection system by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.08.01
6.02.03.10.04
The SMD group shall provide instrumentation design details required by the HLX siberian snake magnet from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.09.01
6.02.03.10.04
The SMD shall provide the HLX siberian snake cold mass design with mechanical support and clearance necessary to route the Hadron beampipe through the magnet bore.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.09.02
6.02.03.10.04
The SMD shall define position and alignment values which will be used to set the 300K position and alignments of the HLX siberian snake hadron beam pipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.09.03
6.02.03.10.04
The Mechanical enginnering and Vacuum Group shall provide the HLX siberian snake hadron beam pipe design to be inserted into the HSR cold bore.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.09.04
6.02.03.10.04
The Mechanical enginnering team shall purchase the hadron beam pipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.09.05
6.02.03.10.04
The SMD shall install the HLX siberian snake hadron beam pipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.10.01
6.02.03.10.04
The Vacuum group shall provide the design details of the HSR ACBS.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.10.02
6.02.03.10.04
The mechanical enginnering team shall define the design of the HLX siberian snake beam pipe taper geometry to match the geometry of the HSR ACBS.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.10.03
6.02.03.10.04
The Mechanical enginnering team shall purchase the taper beam pipe interconnect.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.10.04
6.02.03.10.04
The SMD shall install the HLX siberian snake taper beam pipe interconnect.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.10.05
6.02.03.10.04
ASR System Installation and Final Integration shall provide funding and scheduling to install the snake magnet taper beam pipe interconnect to the ARC ACBS.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.11.01
6.02.03.10.04
The mechanical enginnering and Vacuum group shall provide the ACBS bypass pipe design details with mechanical support and clearance necessary to route the ACBS cryogenics bypass beampipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.11.02
6.02.03.10.04
The mechanical enginnering group shall purchase the piping necessary to connect the ACBS bypass.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.11.03
6.02.03.10.04
The mechanical enginnering team shall define the design of the HLX siberian snake ACBS bypass mounting support provisions.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.11.04
6.02.03.10.04
The SMD Group shall install the ACBS Bypass piping to the mechanical supports.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.11.05
6.02.03.10.04
The SMD group shall leak check the ACBS bypass piping connections in the HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.11.06
6.02.03.10.04
Reference related ACBS interface document for interconnect for the ACBS assembly and installation interface details to the vacuum assembly. (I-HSR-VAC-CRYOMOD.XXX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.12.01
6.02.03.10.04
The mechanical design group shall provide the design details for the HLX siberian snake cryostat to the mechanical support stand.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.12.02
6.02.03.10.04
ASR System Installation and Final Integration shall provide funding and scheduling to install HLX siberian snake onto the girder assembly in the tunnel by the appropriate technical support group which satisfies the mechanical design group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.13.01
6.02.03.10.04
The physics group shall provide the allocated spatial location based on the lattice for the HLX siberian snake magnet cryostat
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.13.02
6.02.03.10.04
The mechanical design group shall provide the volume within the tunnel to be occupied by the HLX siberian snake cryostat and CAD model to ensure the design does not interfere with magnet, cables, cryogenic connections to the HLX siberian snake cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.13.03
6.02.03.10.04
The mechanical design group shall define the fiducial marks positioning for the HLX siberian snake cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the HLX siberian snake cryostat center and its alignment with respect to the HSR beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.13.04
6.02.03.10.04
The SMD shall have fiducial marks added to the cryostat allowing the center of the magnet and magnets beamlines to be located.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.13.05
6.02.03.10.04
ASR System Installation and Final Integration shall provide funding and scheduling to provide installation details to ensure the HLX siberian snake cryostat is aligned in the tunnel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SNAKE.13.06
6.02.03.10.04
ASR System Installation and Final Integration shall provide funding and scheduling to align the HLX siberian snake cryostat such that the fiducial marks on the HLX siberian snake cryostat are located with respect to the install locations provided by the survey group to ensure the HLX siberian snake cryostat is aligned.
01/08/2026
Reviewed
FALSE

HSR-MAG-SCMR-SPINROTATOR

R-HSR-MAG-SCMR-SPINROTATOR.01.01
6.02.03.10.03
The mechanical design group shall provide the HLX refurbished spin rotator magnet cryostat design with mating pipe connections from the cryostat to its neighboring cryogenic magnets.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.01.02
6.02.03.10.03
ASR System Installation and Final Integration shall provide funding and scheduling to install the HLX spin rotator magnet cryogenic pipe connections by the appropriate technical support group which satisfies the mechanical group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.01.03
6.02.03.10.03
The cryogenics Group shall leak check the final pipe connections from the HLX spin rotator magnet to the 4K cryogenic distribution system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.02.01
6.02.03.10.03
The instrumentation group shall define the HSR beam instrumentation design details required for the mechanical design group to incorporate into the HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.02.02
6.02.03.10.03
The mechanical design group shall provide the beam instrumentation design to incorporate the instrumentation groups design into HLX spin rotator magnet insulating vacuum.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.02.03
6.02.03.10.03
The SMD group shall incorporate the mechanical groups insulating vacuum housing design into the HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.02.04
6.02.03.10.03
The SMD group shall leak check the HLX spin rotator magnet insulating vacuum housing.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.03.01
6.02.03.10.03
Reference related beam position monitor interface document for vacuum beamline interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.04.01
6.02.03.10.03
Reference related beam position monitor interface document for cryostat feedthrough interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.04.02
6.02.03.10.03
The mechanical design group shall provide the design details to incorporate the instrumentation design into HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.04.03
6.02.03.10.03
The SMD group shall incorporate the mechanical groups feedthrough design of the insulating housing into the HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.04.04
6.02.03.10.03
The Instrumentation group shall perform electrical testing at room temperature to verify the HLX spin rotator magnet instrumentation lead connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.05.01
6.02.03.10.03
The SMD group shall provide the current lead design details for the HLX spin rotator magnet to provide system integration.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.05.02
6.02.03.10.03
The cryogenics group shall provide the design details for the HLX spin rotator magnet current lead integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.05.03
6.02.03.10.03
The power supply group provide schematics for the HLX spin rotator magnet with the number of cables and connectors needed to the power all the magnet power circuits.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.05.04
6.02.03.10.03
The power supply group shall purchase the cables that go from the power supply to the current lead connections for the HLX spin rotator magnets, if required.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.05.05
6.02.03.10.03
The SMD group shall perform electrical testing to verify at room temperature the HLX spin rotator magnet\current lead connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.05.06
6.02.03.10.03
ASR System Installation and Final Integration shall provide funding and scheduling to install HLX spin rotator magnet current lead connections by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.05.07
6.02.03.10.03
The cryogenics group shall leak check the final pipe connections from the HLX spin rotator magnet cryostat to the 4 K cryogenic distribution system for the current leads.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.06.01
6.02.03.10.03
The power supply group shall provide the quench protection/detection design details for the HLX spin rotator magnet to define system integration.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.06.02
6.02.03.10.03
The SMD group shall perform electrical testing at room temperature to verify the HLX spin rotator magnet quench protection/detection lead connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.06.03
6.02.03.10.03
The power supply group shall provide schematics with the number of cables and connectors needed to connect all quench protection/detection circuits.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.06.04
6.02.03.10.03
The power supply group shall purchase any cabling to go from the power supply to any quench protection/detection equipment needed for the HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.06.05
6.02.03.10.03
The power supply group shall provide all quench protection/detection system and ancillary components to be utilized by the HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.06.06
6.02.03.10.03
ASR System Installation and Final Integration shall provide funding and scheduling to install HLX spin rotator magnet quench protection /detection system by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.07.01
6.02.03.10.03
The SMD group shall provide instrumentation design details required by the HLX spin rotator magnet from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.08.01
6.02.03.10.03
The SMD shall provide a HLX spin rotator cold mass design with mechanical support and clearance necessary to route the Hadron beampipe through the magnet bore.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.08.02
6.02.03.10.03
The SMD shall define position and alignment values which will be used to set the 300K position and alignments of the HLX spin rotator hadron beam pipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.08.03
6.02.03.10.03
The Mechanical enginnering and vacuum group shall provide the HLX spin rotator hadron beam pipe design to be inserted into the HSR cold bore.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.08.04
6.02.03.10.03
The Mechanical enginnering team shall purchase the hadron beam pipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.08.05
6.02.03.10.03
The SMD shall install the HLX spin rotator hadron beam pipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.09.01
6.02.03.10.03
The Vacuum group shall provide the design details of the HSR ACBS profile.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.09.02
6.02.03.10.03
The mechanical enginnering team shall define the design of the HLX spin rotator beam pipe taper geometry to match the geometry of the HSR ACBS.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.09.03
6.02.03.10.03
The Mechanical enginnering team shall purchase the taper beam pipe interconnect.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.09.04
6.02.03.10.03
The SMD shall install the HLX spin rotator taper beam pipe interconnect.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.09.05
6.02.03.10.03
ASR System Installation and Final Integration shall provide funding and scheduling to install the HLX spin rotator magnet taper beam pipe interconnect to the ARC ACBS.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.10.01
6.02.03.10.03
The mechanical enginnering and Vacuum group shall provide the ACBS bypass pipe design details with mechanical support and clearance necessary to route the ACBS cryogenics bypass beampipe.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.10.02
6.02.03.10.03
The mechanical enginnering group shall purchase the piping necessary to connect the ACBS bypass.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.10.03
6.02.03.10.03
The mechanical enginnering team shall define the design of the HLX spin rotator ACBS bypass mounting support provisions.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.10.04
6.02.03.10.03
The SMD Group shall weld and install the ACBS Bypass piping to the mechanical supports.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.10.05
6.02.03.10.03
The SMD group shall leak check the ACBS bypass piping connections in the HLX spin rotator magnet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.10.06
6.02.03.10.03
Reference related ACBS interface document for interconnect for the ACBS assembly and installation interface details to the vacuum assembly. (I-HSR-VAC-CRYOMOD.XXX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.11.01
6.02.03.10.03
The mechanical design group shall provide the design details for the HLX spin rotator cryostat to the mechanical support stand.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.11.02
6.02.03.10.03
ASR System Installation and Final Integration shall provide funding and scheduling to install HLX spin rotator onto the girder assembly in the tunnel by the appropriate technical support group which satisfies the mechanical design group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.12.01
6.02.03.10.03
The physics group shall provide the allocated spatial location based on the lattice for the HLX spin rotator magnet cryostat
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.12.02
6.02.03.10.03
The mechanical design group shall provide the volume within the tunnel to be occupied by the HLX spin rotator cryostat and CAD model to ensure the design does not interfere with magnet, cables, cryogenic connections to the HLX spin rotator cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.12.03
6.02.03.10.03
The mechanical design group shall define the fiducial marks positioning for the HLX spin rotator cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the HLX spin rotator cryostat center and its alignment with respect to the HSR beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.12.04
6.02.03.10.03
The SMD shall have fiducial marks added to the cryostat allowing the center of the magnet and magnets beamlines to be located.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.12.05
6.02.03.10.03
ASR System Installation and Final Integration shall provide funding and scheduling to provide installation details to ensure the HLX spin rotator cryostat is aligned in the tunnel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-SPINROTATOR.12.06
6.02.03.10.03
ASR System Installation and Final Integration shall provide funding and scheduling to align the HLX spin rotator cryostat such that the fiducial marks on the HLX spin rotator cryostat are located with respect to the install locations provided by the survey group to ensure the HLX spin rotator cryostat is aligned.
01/08/2026
Reviewed
FALSE

HSR-MAG-SCMR-TRIPLET

HSR-MAG-SCMR-TRIPLET-DUAL

R-HSR-MAG-SCMR-TRIPLET-DUAL.01.01
6.02.03.10.01
The mechanical design group shall provide a reconfigured cryostat design to cap and seal the BLUE line magnets including the M,R,U,S,H cryogenic lines.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.01.02
6.02.03.10.01
The cryogenics group shall create schematics with the piping and connectors needed to cap the Blue line in accordance to the mechanical engineering design in the tunnel at the VJR.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.01.03
6.02.03.10.01
The cryogenics group shall purchase the piping and accessories necessary to cap the dual triplet cryostat Blue line.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.01.04
6.02.03.10.01
ASR System Installation and Final Integration shall provide funding and scheduling to cap the dual triplet cryostat Blue line by the appropriate technical support group which satisfies the cryogenics group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.01.05
6.02.03.10.01
The cryogenics group shall leak check the dual triplet cryostat to the 4K cryogenic distribution system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.02.01
6.02.03.10.01
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the dual triplet cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.03.01
6.02.03.10.01
Reference related beam position monitor interface document for vacuum interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM-PU.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.04.01
6.02.03.10.01
Reference related beam position monitor interface document for vacuum feedthrough interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM-CRYO_CABLE.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.06.01
6.02.03.10.01
The cryogenics group shall provide the reconfigured design details for the dual triplet cryostat system integration and be capable of being cooled with the 4K cryogenic system and bypass the Blue line cold masses.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.06.02
6.02.03.10.01
The power supply group provide create electrical schematics for the dual triplet cryostat with the number of cables and connectors needed to the power all the cryostat power circuits and bypass the blue line cold mass.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.06.03
6.02.03.10.01
The power supply group shall purchase the cables to bypass the blue line cold mass current lead connections for the dual triplet cryostats, if required.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.06.04
6.02.03.10.01
ASR System Installation and Final Integration shall provide funding and scheduling to bypass the Blue line cold mass Dual Triplet current lead connections by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.06.05
6.02.03.10.01
The power supply group shall perform electrical testing to verify functionality at room temperature and then cold of the dual triplet cryostat\current lead connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.06.06
6.02.03.10.01
The cryogenics group shall leak check the final cold crossing buss connections from the dual triplet cryostat to the 4K cryogenic distribution system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.07.01
6.02.03.10.01
The power supply group shall provide the quench protection and detection design details for the dual triplet cryostat to define system integration.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.08.01
6.02.03.10.01
The cryogenics group shall provide cryogenic control design details required from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.08.02
6.02.03.10.01
The magnet design team shall provide magnet instrumentation design details required by the dual triplet cryostat from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.08.03
6.02.03.10.01
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.09.01
6.02.03.10.01
Reference related ACBS interface document for ACBS beamline vacuum interconnect and installation interface details to the vacuum assembly. (I-HSR-VAC-SCREENS.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.09.02
6.02.03.10.01
Reference related ACBS interface document for ACBS cryogenic interconnect, beam screen heater and control valve and installation interface details to the vacuum assembly. (I-HSR-VAC-CRYOMOD.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.09.03
6.02.03.10.01
The mechanical design group shall provide a design with mechanical support and clearance necessary to route the Actively Cooled Beam Screen (ACBS) through the cryostat bore and install the beam screen heater and valve assembly.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.10.01
6.02.03.10.01
Reference related ACBS interface document for ACBS cryogenic interconnect, beam screen heater, thermal sensors, control valve and installation interface details to the vacuum assembly. (I-HSR-VAC-CRYOMOD.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.10.02
6.02.03.10.01
The mechanical design group shall provide the design details to incorporate the vacuum ACBS feedthrough design into the dual triplet cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.11.01
6.02.03.10.01
The vacuum group shall provide the design details of the taper beam pipe interconnect to the Actively Cooled Beam Screen (ACBS) at each end of the Triplet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.11.02
6.02.03.10.01
The vacuum group shall provide the design details of the RF bellows in the taper beam pipe interconnect to the ACBS.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.11.03
6.02.03.10.01
ASR System Installation and Final Integration shall provide funding and scheduling install dual triplet cryostat RF bellows and taper beam pipe assembly by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.12.01
6.02.03.10.01
The vacuum group shall provide the design details of the gate valve interconnect.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.12.02
6.02.03.10.01
The vacuum group shall purchase the gate valve interconnect, if required.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.12.03
6.02.03.10.01
The mechanical design group shall provide a design to interconnect the gate valve to the cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.12.04
6.02.03.10.01
ASR System Installation and Final Integration shall provide funding and scheduling install dual triplet cryostat gate valve assembly by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.13.01
6.02.03.10.01
The vacuum group shall provide the design details of the vacuum pump installation provisions to the bellows at each end of the dual triplet cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.13.02
6.02.03.10.01
The mechanical design group shall provide a design to interconnect the vacuum pumps to the cryostat and beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.13.03
6.02.03.10.01
ASR System Installation and Final Integration shall provide funding and scheduling install the vacuum pumps to the cryostat and beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.13.04
6.02.03.10.01
The vacuum group shall leak check the dual triplet insulating housing and beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.14.01
6.02.03.10.01
The mechanical design group shall provide the design details for the dual triplet cryostat to the mechanical support stand.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.14.02
6.02.03.10.01
The mechanical design group shall provide design details for an adjustable cryostat support structure.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.14.03
6.02.03.10.01
The TBD group shall provide an adjustable support structure for the cryostat which satisfies the design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.14.04
6.02.03.10.01
ASR System Installation and Final Integration shall provide funding and scheduling install dual triplet cryostat onto the girder assembly in the tunnel by the appropriate technical support group which satisfies the mechanical design group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-DUAL.15.01
6.02.03.10.01
The physics group shall provide the allocated spatial location based on the lattice for the dual triplet cryostat
01/08/2026
Reviewed
FALSE

HSR-MAG-SCMR-TRIPLET-SINGLE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.01.01
6.02.03.10.02
The mechanical design group shall provide a cryostat design with mating pipe connections from the single triplet cryostat to the 4K cryogenic distribution system M,R,U,S,H cryogenic lines.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.01.02
6.02.03.10.02
The cryogenics group shall create schematics with the piping and connectors needed in accordance to the mechanical engineering design in the tunnel at the VJR.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.01.03
6.02.03.10.02
The cryogenics Group shall purchase the piping and accessories necessary to plumb the single triplet cryostat to the 4K distribution system in tunnel at the VJR.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.01.04
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install single triplet 4K pipe connections by the appropriate technical support group which satisfies the cryogenics group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.01.05
6.02.03.10.02
The cryogenics Group shall leak check the final pipe connections from the single triplet cryostat to the 4K cryogenic distribution system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.02.01
6.02.03.10.02
The vacuum group shall provide the existing insulating vacuum pressure relief system design for the single triplet cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.02.02
6.02.03.10.02
The mechanical design group shall retrofit the existing insulating vacuum pressure relief system to limit the pressure in the single triple cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.03.01
6.02.03.10.02
Reference related beam position monitor interface document for vacuum interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM-PU.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.04.01
6.02.03.10.02
Reference related beam position monitor interface document for vacuum feedthrough interconnect for the beam position monitor pickup assembly and installation interface details to the vacuum assembly. (I-HSR-INST-BPM-CRYO_CABLE.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.01
6.02.03.10.02
The cryogenics group shall provide the cold crossing buss design details for the single triplet cryostat system integration and be capable of being cooled with the 4K cryogenic system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.02
6.02.03.10.02
The power supply group shall provide the electrical schematic for the single triplet cryostat cold crossing buss to provide system integration.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.03
6.02.03.10.02
The mechanical design group shall incorporate the cold crossing bus design details for the single triplet cold mass, such that the final connections can be made in the tunnel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.04
6.02.03.10.02
The power supply group provide create electrical schematics for the single triplet cryostat cold crossing buss with the number of cables and connectors needed to the power all the cryostat power circuits.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.05
6.02.03.10.02
The power supply group shall purchase the cables that go from the power supply valve box to the cold crossing buss connections for the single triplet cryostats, if required.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.06
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install single triplet current lead connections by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.07
6.02.03.10.02
The power supply group shall perform electrical testing to verify functionality at room temperature and cold of the single triplet cryostat cold crossing buss connections.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.06.08
6.02.03.10.02
The cryogenics group shall leak check the final cold crossing buss connections from the dual triplet cryostat to the 4K cryogenic distribution system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.07.01
6.02.03.10.02
The power supply group shall provide the quench protection and detection design details for the single triplet cryostat to define system integration.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.07.02
6.02.03.10.02
The power supply group shall provide schematics with the number of cables and connectors needed to connect all quench circuits.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.07.03
6.02.03.10.02
The power supply group shall purchase any cabling to go from the power supply to any quench protection equipment needed for the cryostats.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.07.04
6.02.03.10.02
The power supply group shall provide all Quench protection system and ancillary components to be utilized by the magnets.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.07.05
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install single triplet quench protection system by the appropriate technical support group which satisfies the power supply group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.07.06
6.02.03.10.02
The power supply group shall perform electrical testing to verify at room temperature the single triplet quench protection lead connections are capable of meeting operational needs.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.08.01
6.02.03.10.02
The cryogenics group shall provide cryogenic control design details required by the cryostat from the cold mass to the 300K feedthrough terminals\connectors on the vac vessel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.08.02
6.02.03.10.02
The magnet design team shall provide instrumentation design details required by the dual triplet cryostat magnets from the cold mass to the 300K terminals\connectors on the vac vessel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.08.03
6.02.03.10.02
The mechanical design group shall provide the single triplet cryostat cryogenic control design feed through details to provide system integration of the 300K terminal/connectors on the vac vessel, such that the final connections can be made in the tunnel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.08.04
6.02.03.10.02
The cryogenics group shall provide schematics showing all the connections to the cryostat to the 4K cryo control system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.08.05
6.02.03.10.02
The cryogenics group shall purchase the wire and connectors necessary to connect the cryostat to the 4K cryo control system.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.08.06
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install single triplet cryostat controls system by the appropriate technical support group which satisfies the cryogenics group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.08.07
6.02.03.10.02
The magnet design team shall perform electrical testing to verify at room temperature the cryogenic control lead connections are capable of meeting operational needs.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.09.01
6.02.03.10.02
Reference related ACBS interface document for ACBS beamline vacuum interconnect and installation interface details to the vacuum assembly. (I-HSR-VAC-SCREENS.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.09.02
6.02.03.10.02
Reference related ACBS interface document for ACBS cryogenic interconnect, beam screen heater and control valve and installation interface details to the vacuum assembly. (I-HSR-VAC-CRYOMOD.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.09.03
6.02.03.10.02
The mechanical design group shall provide a single cryostat design with mechanical support and clearance necessary to route the Actively Cooled Beam Screen (ACBS) through the cryostat bore and install the beam screen heater and valve assembly.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.10.01
6.02.03.10.02
Reference related ACBS interface document for ACBS cryogenic interconnect, beam screen heater, thermal sensors, control valve and installation interface details to the vacuum assembly. (I-HSR-VAC-CRYOMOD.XX)
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.10.02
6.02.03.10.02
The mechanical design group shall provide the design details to incorporate the vacuum ACBS feedthrough design into the single triplet cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.11.01
6.02.03.10.02
The vacuum group shall provide the design details of the taper beam pipe interconnect to the Actively Cooled Beam Screen (ACBS) at each end of the Triplet.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.11.02
6.02.03.10.02
The vacuum group shall provide the design details of the RF bellows in the taper beam pipe interconnect to the ACBS.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.11.03
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install single triplet cryostat RF bellows and taper beam pipe assembly by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.12
6.02.03.10.02
The single triplet cryostat shall have a gate valve at each end.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.12.01
6.02.03.10.02
The vacuum group shall provide the design details of the gate valve interconnect.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.12.02
6.02.03.10.02
The vacuum group shall purchase the gate valve interconnect, if required.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.12.03
6.02.03.10.02
The mechanical design group shall provide a design to interconnect the gate valve to the cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.12.04
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install single triplet cryostat gate valve assembly by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.13.01
6.02.03.10.02
The vacuum group shall provide the design details of the vacuum pump installation provisions to the bellows at each end of the single triplet cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.13.02
6.02.03.10.02
The mechanical design group shall provide a design to interconnect the vacuum pumps to the cryostat and beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.13.03
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install the vacuum pumps to the cryostat and beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.13.04
6.02.03.10.02
The vacuum group shall leak check the dual triplet insulating housing and beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.14.01
6.02.03.10.02
The mechanical design group shall provide the design details for the single triplet cryostat to the mechanical support stand.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.14.02
6.02.03.10.02
The mechanical design group shall provide design details for an adjustable cryostat support structure.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.14.03
6.02.03.10.02
The TBD group shall provide an adjustable support structure for the cryostat which satisfies the design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.14.04
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to install single triplet cryostat onto the girder assembly in the tunnel by the appropriate technical support group which satisfies the mechanical design group design.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.15.01
6.02.03.10.02
The physics group shall provide the allocated spatial location based on the lattice for the single triplet cryostat
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.15.02
6.02.03.10.02
The mechanical design group shall provide the volume within the tunnel to be occupied by the cryostat and CAD model to ensure the design does not interfere with cryostat, cables, cryogenic connections to the cryostat.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.15.03
6.02.03.10.02
The mechanical design group shall have fiducial marks added to the cryostat allowing the center of the cryostat and cryostats beamlines to be located. It should identify the location of the cryostat center and its alignment with respect to the beamline.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.15.04
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to provide installation details to ensure the cryostat is aligned in the tunnel.
01/08/2026
Reviewed
FALSE

R-HSR-MAG-SCMR-TRIPLET-SINGLE.15.05
6.02.03.10.02
ASR System Installation and Final Integration shall provide funding and scheduling to align the cryostat such that the fiducial marks on the cryostat are located with respect to the install locations provided by the survey group to ensure the cryostat is aligned.
01/08/2026
Reviewed
FALSE

HSR-MAG-SNAKE

P-HSR-MAG-SNAKE.01.01
6.02.03.10
The Solenoid shall be a 'HLX' RHIC Magnet in a 'Snake' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 10.4 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.01.09
6.02.03.10
The magnet pole tip radius shall be 50 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.01.11
6.02.03.10
TBD
02/09/2026
Not Applicable
FALSE

P-HSR-MAG-SNAKE.02.01
6.02.03.10
The magnet dipole field (B) shall be 4 (T).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.02.03
6.02.03.10
The magnet maximum ramp rate shall be 0.5 (A/s).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03
6.02.03.10
The magnet is a HLX(Snake) RHIC Magnet, the multipole homogeneity measurements and transfer function are as maintained in the BNL magnet repository. All refurbished magnets shall meet the homogenity requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=329(A).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03.03.02
6.02.03.10
< Requirement Not Applicable >
02/09/2026
Not Applicable
FALSE

P-HSR-MAG-SNAKE.03.03.04
6.02.03.10
< Requirement Not Applicable >
02/09/2026
Not Applicable
FALSE

P-HSR-MAG-SNAKE.04
6.02.03.10
< Requirement Not Applicable >
02/09/2026
Not Applicable
FALSE

P-HSR-MAG-SNAKE.05
6.02.03.10
The magnet is a HLX(Snake) RHIC Magnet, the Magnet-Fringe-field calculations are as maintained in the BNL magnet repository. All refurbished magnets shall meet the Fring feild requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 g/s, between 3.5bar and 4 bar, and at a temperature below 4.7K.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using supercritical helium between 3.5 bar and 4 bar, and at a temperature of less than 4.7K.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of 3.7 W while operating at nominal conditions between 3.5 bar and 4 bar and a temperature less than 4.7 (K).
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.06.04
6.02.03.10
The magnet current leads cooling shall be capable of removing a maximum total heat load of 1.2W at the cold end while maintaining nominal operating conditions between 3.5 bar and 4 bar and below 4.7 (K), and lead cooling flow of 0.03 g/s for currents upto 300A, and above 300A the current shall ramp with a slope of 0.00012 (g/s)/(A).
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 bar.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325 bar.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a 50 K axial gradient.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SNAKE.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and the magnet quench perfromance SHALL be no worse than existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.08.01
6.02.03.10
The magnet coils shall pass a Hi-Pot test at nominal operating conditions corresponding to the exsisting RHIC Helicoil magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.08.02
6.02.03.10
The magnet shall be delivered with the exsisting RHIC helicoil Magnet-Quench detection voltage taps.
02/09/2026
In Process
FALSE

P-HSR-MAG-SNAKE.08.03
6.02.03.10
All SC magnet Splice resistances shall be no worse than the existing RHIC helicoil magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.09
6.02.03.10
The magnet is expected to sustain 30 years of EIC operation under nominal conditions.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.10
6.02.03.10
The magnet shall be designed with components capable to withstand a lifetime radiation dose of XXX MGy.
02/09/2026
In Process
FALSE

HSR-MAG-SpinRotator

P-HSR-MAG-SPINROTATOR.01.01
6.02.03.10
The Solenoid shall be a 'HLX' RHIC Magnet in a 'Spin Rotator' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 10.4 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.01.09
6.02.03.10
The magnet pole tip radius shall be 50 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.01.11
6.02.03.10
TBD
02/09/2026
In Process
FALSE

P-HSR-MAG-SPINROTATOR.02.01
6.02.03.10
The magnet dipole field (B) shall be 4 (T).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.02.03
6.02.03.10
The magnet ramp rate shall be TBD. ( 0.5 (A/s))
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.02.07
6.02.03.10
TBD
02/09/2026
In Process
FALSE

P-HSR-MAG-SPINROTATOR.03
6.02.03.10
The magnet is a HLX(Spin Rotator) RHIC Magnet, the multipole homogeneity measurements and transfer function are as maintained in the BNL magnet repository. All refurbished magnets shall meet the homogenity requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=329(A).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.05
6.02.03.10
The magnet is a HLX(Spin Rotator) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository. All refurbished magnets shall meet the Fring feild requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 g/s, between 3.5bar and 4 bar, and at a temperature below 4.7K.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of supercritical helium between 3.5 bar and 4 bar and 4.7 (K).
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of 3.7 W while maintaining nominal operating conditions between 3.5 bar and 4 bar and 4.7 (K).
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.06.04
6.02.03.10
The magnet current leads cooling shall be capable of removing a maximum total heat load of 1.2 W at the cold end while maintaining nominal operating conditions between 3.5 bar and 4.0 bar and 4.7 (K), and cooling flow of 0.032 g/s upto a current of 360A, and above 360A, the flow will ramp with slope of 0.00012 (g/s)/(A).
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 bar.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325bar.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Reviewed
FALSE

P-HSR-MAG-SPINROTATOR.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and the magnet quench perfromance SHALL be no worse than existing RHIC HLX(Spin Rotator) magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.08.01
6.02.03.10
The magnet coils shall pass a Hi-Pot test at nominal operating conditions corresponding to the exsisting RHIC HLX(Spin Rotator) magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.08.02
6.02.03.10
The magnet shall be delivered with the exsisting RHIC HLX(Spin Rotator) Magnet-Quench detection voltage taps.
02/09/2026
In Process
FALSE

P-HSR-MAG-SPINROTATOR.08.03
6.02.03.10
All SC magnet Splice resistances shall be no worse than the existing RHIC HLX(Spin Rotator) magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.09
6.02.03.10
The magnet is expected to sustain 30 years of EIC operation under nominal conditions.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.10
6.02.03.10
The magnet shall be designed with components capable to withstand a lifetime radiation dose of XXX MGy.
02/09/2026
In Process
FALSE

HSR-PS : HSR Magnet Power Supply (WBS 6.05.02.02)

HSR-PS-BIP150 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-BIP150.1
6.02.03.04
The magnet model being powered by the power supply is bip150.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.2
6.02.03.04
The bip150 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.3
6.02.03.04
The bip150 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 15 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.4
6.02.03.04
The bip150 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.5
6.02.03.04
The bip150 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.6
6.02.03.04
The bip150 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.7
6.02.03.04
The bip150 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.8
6.02.03.04
The bip150 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.9
6.02.03.04
The bip150 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.10
6.02.03.04
The bip150 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.11
6.02.03.04
The bip150 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.12
6.02.03.04
The bip150 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.13
6.02.03.04
The bip150 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.14
6.02.03.04
The bip150 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.15
6.02.03.04
The bip150 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.16
6.02.03.04
The bip150 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.17
6.02.03.04
The bip150 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.18
6.02.03.04
The bip150 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP150.19
6.02.03.04
The bip150 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP150.20
6.02.03.04
The bip150 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-BIP300 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-BIP300.1
6.02.03.04
The magnet model being powered by the power supply is bip300.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.2
6.02.03.04
The bip300 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.3
6.02.03.04
The bip300 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 15 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.4
6.02.03.04
The bip300 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.5
6.02.03.04
The bip300 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.6
6.02.03.04
The bip300 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.7
6.02.03.04
The bip300 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.8
6.02.03.04
The bip300 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.9
6.02.03.04
The bip300 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.10
6.02.03.04
The bip300 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.11
6.02.03.04
The bip300 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.12
6.02.03.04
The bip300 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.13
6.02.03.04
The bip300 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.14
6.02.03.04
The bip300 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.15
6.02.03.04
The bip300 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.16
6.02.03.04
The bip300 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.17
6.02.03.04
The bip300 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.18
6.02.03.04
The bip300 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-BIP300.19
6.02.03.04
The bip300 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-BIP300.20
6.02.03.04
The bip300 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-DIPOLE : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-DIPOLE.1
6.02.03.04
The magnet model being powered by the power supply is dipole.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.2
6.02.03.04
The dipole power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.3
6.02.03.04
The dipole power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 20 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.4
6.02.03.04
The dipole power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.5
6.02.03.04
The dipole power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.6
6.02.03.04
The dipole power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.7
6.02.03.04
The dipole power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.8
6.02.03.04
The dipole power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.9
6.02.03.04
The dipole power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.10
6.02.03.04
The dipole power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.11
6.02.03.04
The dipole power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.12
6.02.03.04
The dipole power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.13
6.02.03.04
The dipole power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.14
6.02.03.04
The dipole power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.15
6.02.03.04
The dipole power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.16
6.02.03.04
The dipole power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.17
6.02.03.04
The dipole power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.18
6.02.03.04
The dipole power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-DIPOLE.19
6.02.03.04
The dipole power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DIPOLE.20
6.02.03.04
The dipole power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-DMAIN : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-DMAIN.1
6.02.03.04
The magnet model being powered by the power supply is dmain.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.2
6.02.03.04
The dmain power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.3
6.02.03.04
The dmain power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 400 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.4
6.02.03.04
The dmain power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.5
6.02.03.04
The dmain power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.6
6.02.03.04
The dmain power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.7
6.02.03.04
The dmain power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.8
6.02.03.04
The dmain power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.9
6.02.03.04
The dmain power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.10
6.02.03.04
The dmain power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.11
6.02.03.04
The dmain power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.12
6.02.03.04
The dmain power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.13
6.02.03.04
The dmain power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.14
6.02.03.04
The dmain power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.15
6.02.03.04
The dmain power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.16
6.02.03.04
The dmain power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.17
6.02.03.04
The dmain power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.18
6.02.03.04
The dmain power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-DMAIN.19
6.02.03.04
The dmain power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-DMAIN.20
6.02.03.04
The dmain power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-GAMMAT : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-GAMMAT.1
6.02.03.04
The magnet model being powered by the power supply is gammat.
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.2
6.02.03.04
The gammat power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.3
6.02.03.04
The gammat power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 20 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.4
6.02.03.04
The gammat power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.5
6.02.03.04
The gammat power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.6
6.02.03.04
The gammat power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.7
6.02.03.04
The gammat power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.8
6.02.03.04
The gammat power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.9
6.02.03.04
The gammat power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.10
6.02.03.04
The gammat power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.11
6.02.03.04
The gammat power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.12
6.02.03.04
The gammat power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.13
6.02.03.04
The gammat power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.14
6.02.03.04
The gammat power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.15
6.02.03.04
The gammat power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.16
6.02.03.04
The gammat power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.17
6.02.03.04
The gammat power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.18
6.02.03.04
The gammat power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-GAMMAT.19
6.02.03.04
The gammat power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-GAMMAT.20
6.02.03.04
The gammat power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-NONLINEAR : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-NONLINEAR.1
6.02.03.04
The magnet model being powered by the power supply is nonlinear.
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.2
6.02.03.04
The nonlinear power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.3
6.02.03.04
The nonlinear power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 20 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.4
6.02.03.04
The nonlinear power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.5
6.02.03.04
The nonlinear power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.6
6.02.03.04
The nonlinear power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.7
6.02.03.04
The nonlinear power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.8
6.02.03.04
The nonlinear power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.9
6.02.03.04
The nonlinear power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.10
6.02.03.04
The nonlinear power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.11
6.02.03.04
The nonlinear power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.12
6.02.03.04
The nonlinear power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.13
6.02.03.04
The nonlinear power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.14
6.02.03.04
The nonlinear power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.15
6.02.03.04
The nonlinear power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.16
6.02.03.04
The nonlinear power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.17
6.02.03.04
The nonlinear power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.18
6.02.03.04
The nonlinear power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-NONLINEAR.19
6.02.03.04
The nonlinear power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-NONLINEAR.20
6.02.03.04
The nonlinear power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-OCTUPOLE : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-OCTUPOLE.1
6.02.03.04
The magnet model being powered by the power supply is octupole.
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.2
6.02.03.04
The octupole power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.3
6.02.03.04
The octupole power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 20 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.4
6.02.03.04
The octupole power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.5
6.02.03.04
The octupole power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.6
6.02.03.04
The octupole power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.7
6.02.03.04
The octupole power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.8
6.02.03.04
The octupole power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.9
6.02.03.04
The octupole power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.10
6.02.03.04
The octupole power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.11
6.02.03.04
The octupole power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.12
6.02.03.04
The octupole power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.13
6.02.03.04
The octupole power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.14
6.02.03.04
The octupole power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.15
6.02.03.04
The octupole power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.16
6.02.03.04
The octupole power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.17
6.02.03.04
The octupole power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.18
6.02.03.04
The octupole power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-OCTUPOLE.19
6.02.03.04
The octupole power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-OCTUPOLE.20
6.02.03.04
The octupole power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-QMAIN : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-QMAIN.1
6.02.03.04
The magnet model being powered by the power supply is qmain.
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.2
6.02.03.04
The qmain power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.3
6.02.03.04
The qmain power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 90 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.4
6.02.03.04
The qmain power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.5
6.02.03.04
The qmain power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.6
6.02.03.04
The qmain power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.7
6.02.03.04
The qmain power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.8
6.02.03.04
The qmain power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.9
6.02.03.04
The qmain power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.10
6.02.03.04
The qmain power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.11
6.02.03.04
The qmain power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.12
6.02.03.04
The qmain power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.13
6.02.03.04
The qmain power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.14
6.02.03.04
The qmain power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.15
6.02.03.04
The qmain power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.16
6.02.03.04
The qmain power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.17
6.02.03.04
The qmain power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.18
6.02.03.04
The qmain power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-QMAIN.19
6.02.03.04
The qmain power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-QMAIN.20
6.02.03.04
The qmain power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-ROT : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-ROT.1
6.02.03.04
The magnet model being powered by the power supply is rot.
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.2
6.02.03.04
The rot power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.3
6.02.03.04
The rot power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 15 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.4
6.02.03.04
The rot power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.5
6.02.03.04
The rot power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.6
6.02.03.04
The rot power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.7
6.02.03.04
The rot power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.8
6.02.03.04
The rot power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.9
6.02.03.04
The rot power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.10
6.02.03.04
The rot power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.11
6.02.03.04
The rot power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.12
6.02.03.04
The rot power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.13
6.02.03.04
The rot power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.14
6.02.03.04
The rot power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.15
6.02.03.04
The rot power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.16
6.02.03.04
The rot power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.17
6.02.03.04
The rot power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.18
6.02.03.04
The rot power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-ROT.19
6.02.03.04
The rot power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-ROT.20
6.02.03.04
The rot power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-SEXUPOLE : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-SEXUPOLE.1
6.02.03.04
The magnet model being powered by the power supply is sextupole.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.2
6.02.03.04
The sextupole power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.3
6.02.03.04
The sextupole power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 100 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.4
6.02.03.04
The sextupole power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.5
6.02.03.04
The sextupole power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.6
6.02.03.04
The sextupole power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.7
6.02.03.04
The sextupole power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.8
6.02.03.04
The sextupole power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.9
6.02.03.04
The sextupole power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.10
6.02.03.04
The sextupole power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.11
6.02.03.04
The sextupole power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.12
6.02.03.04
The sextupole power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.13
6.02.03.04
The sextupole power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.14
6.02.03.04
The sextupole power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.15
6.02.03.04
The sextupole power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.16
6.02.03.04
The sextupole power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.17
6.02.03.04
The sextupole power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.18
6.02.03.04
The sextupole power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-SEXUPOLE.19
6.02.03.04
The sextupole power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SEXUPOLE.20
6.02.03.04
The sextupole power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-SKEWQUAD : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-SKEWQUAD.1
6.02.03.04
The magnet model being powered by the power supply is skewquad.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.2
6.02.03.04
The skewquad power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.3
6.02.03.04
The skewquad power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 20 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.4
6.02.03.04
The skewquad power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.5
6.02.03.04
The skewquad power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.6
6.02.03.04
The skewquad power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.7
6.02.03.04
The skewquad power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.8
6.02.03.04
The skewquad power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.9
6.02.03.04
The skewquad power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.10
6.02.03.04
The skewquad power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.11
6.02.03.04
The skewquad power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.12
6.02.03.04
The skewquad power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.13
6.02.03.04
The skewquad power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.14
6.02.03.04
The skewquad power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.15
6.02.03.04
The skewquad power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.16
6.02.03.04
The skewquad power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.17
6.02.03.04
The skewquad power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.18
6.02.03.04
The skewquad power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-SKEWQUAD.19
6.02.03.04
The skewquad power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SKEWQUAD.20
6.02.03.04
The skewquad power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-SNAKE : HSR Magnet Power Supply SNAKE (WBS 6.05.02.02)

P-HSR-PS-SNAKE.1
6.02.03.04
The magnet model being powered by the power supply is snake.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.2
6.02.03.04
The snake power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.3
6.02.03.04
The snake power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 15 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.4
6.02.03.04
The snake power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.5
6.02.03.04
The snake power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.6
6.02.03.04
The snake power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.7
6.02.03.04
The snake power supply shall provide a minimal current setpoint resolution of 12 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.8
6.02.03.04
The snake power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.9
6.02.03.04
The snake power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.10
6.02.03.04
The snake power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.11
6.02.03.04
The snake power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.12
6.02.03.04
The snake power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.13
6.02.03.04
The snake power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.14
6.02.03.04
The snake power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.15
6.02.03.04
The snake power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.16
6.02.03.04
The snake power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.17
6.02.03.04
The snake power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.18
6.02.03.04
The snake power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-SNAKE.19
6.02.03.04
The snake power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-SNAKE.20
6.02.03.04
The snake power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-TUNI300 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-TUNI300.1
6.02.03.04
The magnet model being powered by the power supply is tuni300.
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.2
6.02.03.04
The tuni300 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.3
6.02.03.04
The tuni300 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 22 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.4
6.02.03.04
The tuni300 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.5
6.02.03.04
The tuni300 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.6
6.02.03.04
The tuni300 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.7
6.02.03.04
The tuni300 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.8
6.02.03.04
The tuni300 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.9
6.02.03.04
The tuni300 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.10
6.02.03.04
The tuni300 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.11
6.02.03.04
The tuni300 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.12
6.02.03.04
The tuni300 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.13
6.02.03.04
The tuni300 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.14
6.02.03.04
The tuni300 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.15
6.02.03.04
The tuni300 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.16
6.02.03.04
The tuni300 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.17
6.02.03.04
The tuni300 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.18
6.02.03.04
The tuni300 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-TUNI300.19
6.02.03.04
The tuni300 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-TUNI300.20
6.02.03.04
The tuni300 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-UNI200 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-UNI200.1
6.02.03.04
The magnet model being powered by the power supply is uni200.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.2
6.02.03.04
The uni200 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.3
6.02.03.04
The uni200 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 15 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.4
6.02.03.04
The uni200 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.5
6.02.03.04
The uni200 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.6
6.02.03.04
The uni200 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.7
6.02.03.04
The uni200 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.8
6.02.03.04
The uni200 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.9
6.02.03.04
The uni200 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.10
6.02.03.04
The uni200 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.11
6.02.03.04
The uni200 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.12
6.02.03.04
The uni200 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.13
6.02.03.04
The uni200 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.14
6.02.03.04
The uni200 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.15
6.02.03.04
The uni200 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.16
6.02.03.04
The uni200 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.17
6.02.03.04
The uni200 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.18
6.02.03.04
The uni200 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI200.19
6.02.03.04
The uni200 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI200.20
6.02.03.04
The uni200 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-UNI2000 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-UNI2000.1
6.02.03.04
The magnet model being powered by the power supply is uni2000.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.2
6.02.03.04
The uni2000 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.3
6.02.03.04
The uni2000 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 20 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.4
6.02.03.04
The uni2000 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.5
6.02.03.04
The uni2000 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.6
6.02.03.04
The uni2000 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.7
6.02.03.04
The uni2000 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.8
6.02.03.04
The uni2000 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.9
6.02.03.04
The uni2000 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.10
6.02.03.04
The uni2000 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.11
6.02.03.04
The uni2000 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.12
6.02.03.04
The uni2000 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.13
6.02.03.04
The uni2000 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.14
6.02.03.04
The uni2000 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.15
6.02.03.04
The uni2000 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.16
6.02.03.04
The uni2000 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.17
6.02.03.04
The uni2000 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.18
6.02.03.04
The uni2000 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI2000.19
6.02.03.04
The uni2000 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI2000.20
6.02.03.04
The uni2000 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-UNI300 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-UNI300.1
6.02.03.04
The magnet model being powered by the power supply is uni300.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.2
6.02.03.04
The uni300 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.3
6.02.03.04
The uni300 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 15 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.4
6.02.03.04
The uni300 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.5
6.02.03.04
The uni300 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.6
6.02.03.04
The uni300 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.7
6.02.03.04
The uni300 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.8
6.02.03.04
The uni300 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.9
6.02.03.04
The uni300 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.10
6.02.03.04
The uni300 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.11
6.02.03.04
The uni300 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.12
6.02.03.04
The uni300 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.13
6.02.03.04
The uni300 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.14
6.02.03.04
The uni300 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.15
6.02.03.04
The uni300 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.16
6.02.03.04
The uni300 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.17
6.02.03.04
The uni300 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.18
6.02.03.04
The uni300 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI300.19
6.02.03.04
The uni300 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI300.20
6.02.03.04
The uni300 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-UNI450 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-UNI450.1
6.02.03.04
The magnet model being powered by the power supply is uni450.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.2
6.02.03.04
The uni450 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.3
6.02.03.04
The uni450 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 15 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.4
6.02.03.04
The uni450 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.5
6.02.03.04
The uni450 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.6
6.02.03.04
The uni450 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.7
6.02.03.04
The uni450 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.8
6.02.03.04
The uni450 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.9
6.02.03.04
The uni450 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.10
6.02.03.04
The uni450 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.11
6.02.03.04
The uni450 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.12
6.02.03.04
The uni450 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.13
6.02.03.04
The uni450 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.14
6.02.03.04
The uni450 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.15
6.02.03.04
The uni450 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.16
6.02.03.04
The uni450 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.17
6.02.03.04
The uni450 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.18
6.02.03.04
The uni450 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI450.19
6.02.03.04
The uni450 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI450.20
6.02.03.04
The uni450 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-PS-UNI600 : HSR Magnet Power Supply (WBS 6.05.02.02)

P-HSR-PS-UNI600.1
6.02.03.04
The magnet model being powered by the power supply is uni600.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.2
6.02.03.04
The uni600 power supply shall meet all requirements to deliver the magnet operational parameters defined in the Collider-Accelerator Department RHIC Configuration Manual. [Document:RHIC Configuration Manual,Nov.2006]
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.3
6.02.03.04
The uni600 power supply during operation shall include a ground fault protection system to limit the maximum voltage of the magnet-to-ground to less than 20 V.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.4
6.02.03.04
The uni600 power supply shall provide a slow ramped current.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.5
6.02.03.04
The uni600 power supply shall maintain a full-scale current stability of <10 ppm (RMS) over multiple hours.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.6
6.02.03.04
The uni600 power supply shall maintain a long-term stability (1 second to 10 hours) of TBD A/s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.7
6.02.03.04
The uni600 power supply shall provide a minimal current setpoint resolution of 16 bits.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.8
6.02.03.04
The uni600 power supply synchronization required between power supplies shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.9
6.02.03.04
The uni600 power supply synchronization timing of synchronization shall be TBD s.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.10
6.02.03.04
The uni600 power supply shall limit current ripple (RMS) to TBD ppm of full-scale current in the 0–1 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.11
6.02.03.04
The uni600 power supply shall limit current ripple (RMS) to TBD ppm of full scale current greater than 1kHz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.12
6.02.03.04
The uni600 power supply shall limit ripple to TBD ppm in the 1 kHz–8 kHz range.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.13
6.02.03.04
The uni600 power supply shall limit ripple in the 8 kHz–40 kHz range per the specified TBD chart.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.14
6.02.03.04
The uni600 power supply shall avoid ripple at resonant frequencies of TBD Hz.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.15
6.02.03.04
The uni600 power supply quench detection voltage tap configuration shall meet the parameters found in [voltage tap data.url].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.16
6.02.03.04
The uni600 power supply quench detection threshold levels shall meet the parameters found in [Thresholds.pdf].
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.17
6.02.03.04
The uni600 power supply peak di/dt without inducing a quench shall be TBD A/S.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.18
6.02.03.04
The uni600 power supply quench heater power rating shall be TBD W.
02/09/2026
In Process
FALSE

P-HSR-PS-UNI600.19
6.02.03.04
The uni600 power supply design shall have warm up heaters.
02/09/2026
Reviewed
FALSE

P-HSR-PS-UNI600.20
6.02.03.04
The uni600 power supply warmup heater power rating shall be warm up heater diagrams.url W.
02/09/2026
Reviewed
FALSE

HSR-VAC : HSR Vacuum System (WBS 6.05.02.03)

HSR-VAC-ARC : HSR Vacuum Arc Section (WBS 6.05.02.03)

HSR-VAC-STRAIGHT : HSR Vacuum Straight Section (WBS 6.05.02.03)

HSR-VAC-SCREENS : HSR Vacuum Beam Screen (WBS 6.05.04.01)

P-HSR-VAC-SCREENS.01
6.02.03.06.01
The inner layer of copper shall have a RRR greater than 50 after installation.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.02
6.02.03.06.01
The innermost surface of the beam screen shall have a secondary electron yield (SEY) below 1.02 at the arc CQS after conditioning.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.03
6.02.03.06.01
The innermost surface of the beam screen shall have a secondary electron yield (SEY) below 1.08 at the arc Dipoles after conditioning.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.04
6.02.03.06.01
The overall beam screen impedance shall be less than the impedance budget as provided by accelerator physics.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.05
6.02.03.06.01
The beam screen shall be designed to have a maximum operating temperature less than 10 (K).
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.06
6.02.03.06.01
The arc and insertion region beam screens will be designed to fit through a 68 (mm) aperture.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.07
6.02.03.06.01
The vertical beam aperture for the arc section beam screens shall be greater than 47.5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.08
6.02.03.06.01
The horizontal beam aperture for the arc section beam screens shall be greater than 62.5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.09
6.02.03.06.01
The center shift of the horizontal beam screen aperture shall not exceed 2.5 (mm) when installed in to the dipole due to the magnet sagitta.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.10
6.02.03.06.01
No more than 2 (mm) of stainless steel shall be exposed to the beam in order to accommodate the longitudinal weld seam.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.11
6.02.03.06.01
The beam screen profile will be closed using a full penetration laser weld. The maximum weld protrusion on the inside of the profile shall be less than 0.2 (mm).
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.12
6.02.03.06.01
The beam screen shall be capable of conforming to the arc dipole sagitta without damage. (ref. RHIC drawing number 12010005).
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.13
6.02.03.06.01
The triplet beam screens shall be designed to fit through a TBD aperture.
02/09/2026
In Process
FALSE

P-HSR-VAC-SCREENS.14
6.02.03.06.01
The minimum vertical aperture for the triplet beam screens shall be greater than 90 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.15
6.02.03.06.01
The minimum horizontal aperture for the triplet beam screens shall be greater than 105 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.16
6.02.03.06.01
The magnetic permeability of the beam screen at 300 (K) @ 500 (Oe) magnetization shall be less than 1.005.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.17
6.02.03.06.01
The magnetic permeability of the beam screen at 4 K @ 500 Oe magnetization shall be less than 1.02.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.18
6.02.03.06.01
The eddy current induced effects of the beam screens inside of the gamma-transition jump quadrupoles on the same power supply shall be matched within TBD percent.
02/09/2026
In Process
FALSE

P-HSR-VAC-SCREENS.19
6.02.03.06.01
The beam screens and connected vacuum components shall be designed to allow degassing up to a temperature of 80 K.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.20
6.02.03.06.01
After installation the ends of adjacent beam screens shall be aligned within 1 degree of the orbit plane.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.21
6.02.03.06.01
All beam screen cooling tube welds shall be external to the beam vacuum space (UHV).
02/09/2026
Approved
FALSE

R-HSR-VAC-SCREENS.01.01
6.02.03.06.01
The Vacuum Group shall coordinate and procure the ACBS material and fabrication of the ACBS profile for the utilization in the HSR Vacuum Envelope.
01/08/2026
In Process
FALSE

R-HSR-VAC-SCREENS.01.02
6.02.03.06.01
The Vacuum Group shall cut the ACBS profiles to the appropriate length for each superconducting magnet location.
01/08/2026
In Process
FALSE

R-HSR-VAC-SCREENS.01.03
6.02.03.06.01
The Vacuum Group shall fund and schedule the laser welding of the cooling tube, gold plated end contacts and additional brackets to make the final ACBS assembly.
01/08/2026
In Process
FALSE

R-HSR-VAC-SCREENS.01.04
6.02.03.06.01
The Vacuum Group shall design the ACBS to allow desorbed gas to migrate away from the inner beam chamber when installed in the existing RHIC Yellow HSR Beamline.
01/08/2026
In Process
FALSE

R-HSR-VAC-SCREENS.01.05
6.02.03.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the Vacuum Group to install the final ACBS assembly sections into the existing HSR Beampipe.
01/08/2026
In Process
FALSE

R-HSR-VAC-SCREENS.06.01
6.02.03.06.01
The Vacuum Group shall provide a design which will allow for the mechanical connection between different ACBS sections.
01/08/2026
In Process
FALSE

R-HSR-VAC-SCREENS.06.02
6.02.03.06.01
The Vacuum Group shall provide a design which will allow for the mechanical connection between the ACBS sections and the warm to cold transitions.
01/08/2026
In Process
FALSE

HSR-VAC-INTC : HSR Vacuum RF Finger Bellows (WBS 6.05.04.02)

P-HSR-VAC-INTC.01
6.02.03.06.01
The interconnect module shall be designed to accommodate a range of motion from -10 (mm) to 40 (mm) about the nominal install length.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.02
6.02.03.06.01
The RF bridge shall be designed to allow a 3 (mm) maximum radial offset from the nominal installed position while maintaining electrical contact.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.03
6.02.03.06.01
The contact force between the RF fingers and the sleeve shall be greater than 1 (N/mm) in order to maintain good electrical contact and minimize beam induced heating and impedance.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.04
6.02.03.06.01
The maximum allowable installed radial offset of the installed interconnect module shall be less than 1 (mm) end to end.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.05
6.02.03.06.01
The maximum allowable twist of the installed RF bellows shall be 1 degree end-to-end.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.06
6.02.03.06.01
The moveable extraction flange bellows shall be designed to allow for 5.5 (mm) extension and 0.5 (mm) additional compression from the installed connection to accommodate the differential thermal growth between the magnet cold bore and the beam screen.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.07
6.02.03.06.01
The moveable extraction flange assembly shall be designed to withstand a maximum torque of 70,000 (N-mm) due to magnet quench.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.08
6.02.03.06.01
All copper surfaces with direct exposure to the beam in the interconnect module shall have a minimum RRR value of 10.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.09
6.02.03.06.01
The interconnect module shall be designed to have a maximum operating temperature less than 40 (K).
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.10
6.02.03.06.01
The innermost surface of the interconnect module shall have a secondary electron yield (SEY) below 1.1 after conditioning.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.11
6.02.03.06.01
The relative magnetic permeability of the interconnect module at 4 (K) @ 500 (Oe) magnetization shall be less than 1.8
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.12
6.02.03.06.01
The horizontal and vertical aperture of the interconnect module shall match the adjoining beam screens.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.13
6.02.03.06.01
The BPM mounting side of the interconnect module shall have machined survey fiducials to survey and record the BPM position after installation.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.14
6.02.03.06.01
The interconnect module shall not interfere with pre existing RHIC components.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.15
6.02.03.06.01
The interconnect module design shall include an RF connection to the beam screen.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.16
6.02.03.06.01
The interconnect module design shall have provisions for mounting BPMs or replace existing RHIC stripline BPMs.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.18
6.02.03.06.01
The interconnect module design shall ensure the required vacuum level is achieved for all beam parameters defined in the Master Parameter Table. [Document#:EIS-SEG-RSI-005]
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.20
6.02.03.06.01
The interconnect module design and installation shall minimize or eliminate adding particulates to the hadron ring.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.21
6.02.03.06.01
The cooling system shall be capable of removing the thermal load generated by resistive beam heating and electron cloud.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.22
6.02.03.06.01
The interconnect module design shall ensure adequate electrical, mechanical, and thermal contact to applicable adjacent components.
02/09/2026
In Process
FALSE

P-HSR-VAC-INTC.23
6.02.03.06.01
The internal profile of the interconnect module shall be chosen to minimize the beam impedance as much as possible.
02/09/2026
In Process
FALSE

HSR-VAC-INTC-RF : HSR Vacuum Bellows RF Fingers (WBS 6.05.04.02)

HSR-VAC-BELL : Beam Screens

HSR-VAC-BS : Vacuum Beam Screen

F-HSR-VAC-BS.01
6.02.03
The beam screen design shall ensure adequate vacuum level & stability for all beam parameters in the MPT [Document#:EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.02
6.02.03
The screens shall reduce the average combined heat load on cryogenic system from resistive beam heating and electron cloud to 0.5 W/m or less, including the worst case of radially shifted orbit.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.03
6.02.03
The cooling system shall be capable of removing the thermal load generated by resistive beam heating and electron cloud.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.04
6.02.03
All beam screens shall be actively cooled to operate below 10K
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.05
6.02.03
The RF finger bellows shall operate at a temperature required to minimize beam heating effects.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.06
6.02.03
Beam screens shall be designed to fit into the HSR round cold beam pipes in all seven HSR arcs.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.07
6.02.03
Beam screens shall be designed to fit into the cold mass interconnect.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.08
6.02.03
The impedance of the screen design, including the screen with RF finger bellows at the cold mass interconnects shall not exceed the global impedance budget which has been defined by approved by beam physics.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.09
6.02.03
The beam screens shall be designed to be mechanically resistant to eddy-current forces resulting from a magnet quench.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.10
6.02.03
The beam screen design shall be compatible with the transition-crossing jump function.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.11
6.02.03
The beam screen fabrication and installation shall be conducted such that the installation process minimizes or eliminates adding particulates to the hadron ring.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.12
6.02.03
All beam screens shall be designed to be removable without negative impact to any HSR components.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.13
6.02.03
The innermost surface of the RF finger bellows shall suppress electron secondary emission yield (SEY).
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.14
6.02.03
The RF finger bellows shall not interfere with the existing process and magnet bus lines (anti-squirm can)
02/09/2026
Approved
FALSE

HSR-VAC-CRYOMOD

P-HSR-VAC-CRYOMOD.01
6.02.03.06.03
The heat load from the ACBS components to the cold bore during the 80 (K) degassing shall be less than 60 (W) per cooling zone.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.02
6.02.03.06.03
The ACBS and extraction piping shall meet the B31.3 cryogenic process piping requirements given the following criteria for pressure, temperature and stress as identified in requirements P-HSR-VAC-CRYOMOD.02.0X.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.02.01
6.02.03.06.03
The Max Allowable External Working Pressure (MAEWP) shall be 1 (atm) external at 322 (K).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.02.02
6.02.03.06.03
The Minimum Design Metal Temperature (MDMT) shall be 4 (K) at 18.8 (bar).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.02.03
6.02.03.06.03
The Max Allowable Working Pressure (MAWP) shall be 18.8 (bar) at 322 (K).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.02.04
6.02.03.06.03
The ACBS Heater Piping Pressure and Flexibility (HPPF) shall be 18.8 (bar).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.03
6.02.03.06.03
All ACBS piping shall be pressure tested to 110% design pressure of 20.7 (bar) at 300 (K).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.04
6.02.03.06.03
The ACBS heater shall be capable of providing sufficient power to achieve the required 80 (K) degassing temperature.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.05
6.02.03.06.03
The ACBS cooling circuit control valve shall be able to regulate the coolant flow between 0 and 2.5 (grams/sec).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.06
6.02.03.06.03
The ACBS cooling and heater circuit must be compatible with the existing RHIC cryogenic system.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.07
6.02.03.06.03
The ACBS and extraction piping shall meet the B31.3 cryogenic process piping requirements given the following criteria for fatigue as identified in requirement P-HSR-VAC-CRYOMOD.07.0X..
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.07.01
6.02.03.06.03
The thermal fatigue load shall be 120 cycles consisting of 4 cycles per year over 30 years.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.07.02
6.02.03.06.03
The pressure fatigue load shall be 3,000 cycles at normal operating pressure of 4 (atm) consisting of 100 cycles per year over 30 years.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.07.03
6.02.03.06.03
The design fatigue load (pressure test and quenches) shall be 240 cycles at 18.6 (atm) consisting of 8 cycles per year over 30 years.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.08
6.02.03.06.03
The tubing supports shall be properly placed to keep resonance modes greater than 15 (Hz).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-CRYOMOD.09
6.02.03.06.03
The ACBS cryogenic piping and component welds shall be helium leaked checked to less than 2 x 10-10 std cc (He/sec)
02/09/2026
Reviewed
FALSE

R-HSR-VAC-CRYOMOD.01.02
6.02.03.06.03
The Vacuum Group shall design and provide modification to the existing MLI support in the ACBS cooling circuit.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.01.03
6.02.03.06.03
The Cryogenic Group shall support the thermal and hydraulic design of the heater to accommodate ACBS heat losses to cold bore provided by the Vacuum Group.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.01.04
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation using the Vacuum Group for the heater interconnect to the ACBS cooling circuit.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.01.05
6.02.03.06.03
The Vacuum Group will design all installation and leak checking fixtures required for the heater and supply piping, between the supply header and the connection to the beam screen cooling tube.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.01.06
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the leak test using the Vacuum Group for the heater connection inside the Cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.02.01
6.02.03.06.03
The Vacuum Group shall provide a thermal link design at every interconnect from the ACBS cooling line to either the BPM housing, gauge conduit or sorption pump.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.02.02
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation using the Vacuum Group for each thermal link at every interconnect from the ACBS cooling line to either the BPM housing, gauge conduit or sorption pump.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.03.01
6.02.03.06.03
The Vacuum Group shall provide the ACBS connection design at every interconnect that is not a heater supply or return.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.03.02
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation using the Vacuum Group for each ACBS connection at every interconnect that is not a heater supply or return.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.04.01
6.02.03.06.03
The Vacuum Group shall provide the turret/feed-through design for the supply/return temperature sensor connections inside the cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.04.02
6.02.03.06.03
The Vacuum Group shall provide the vacuum feed-through and connections to all equipment inside the cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.04.03
6.02.03.06.03
The Cryogenics Group shall provide design support for the selection and mounting of the temperature sensors.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.04.04
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation using the Vacuum Group for the turret/feed-through design of the supply/return temperature sensor connections inside the cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.05.01
6.02.03.06.03
The Vacuum Group shall provide the supply/return temperature sensor signal at the turret/feed-through.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.05.02
6.02.03.06.03
The Cryogenics Control Group shall distribute the provided supply/return temperature sensor signal from the turret/feed-through to the control system.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.06.01
6.02.03.06.03
The Vacuum Group shall provide the turret/feed-through design for the heater electrical connections inside the cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.06.02
6.02.03.06.03
The Cryogenics group shall fund and install the heater power supply, PLC controller and related cabling.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.06.03
6.02.03.06.03
The Vacuum Group shall provide the design and hardware for the vacuum feed-through and connections to all equipment inside the cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.06.04
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation using the Vacuum Group for the turret/feed-through design of the heater electrical connections inside the cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.07.01
6.02.03.06.03
The Cryogenics Group shall provide design support for the sizing and selection of the cryogenics valve.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.07.02
6.02.03.06.03
The Vacuum Group shall provide the design for mounting, feed-through, mechanical connection and the cryogenics valve.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.07.03
6.02.03.06.03
The Vacuum Group shall provide the mounting, feed-through, mechanical connection and the cryogenics valve.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.07.04
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of the mounting, feed-through and mechanical connection to the cryogenics valve.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.07.05
6.02.03.06.03
The Vacuum group shall design and supply the leak and pressure test fixtures for each ACBS cooling loop up to the supply/return cryo connection point.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.07.06
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the leak test using the Vacuum Group for the valve actuators and valve connections inside the cryostat.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.08.01
6.02.03.06.03
The Vacuum Group shall design the T-connection points for the interconnect module and ACBS to the cryogenic supply and return lines for all cooling loops.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.08.02
6.02.03.06.03
The Cryogenic Group shall support the design the T-connection points for the interconnect module and ACBS to the cryogenic supply and return lines for all cooling loops.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.08.03
6.02.03.06.03
The Vacuum Group shall provide the hardware for connection points for the interconnect module and ACBS to the cryogenic supply and return lines for all cooling loops.
01/08/2026
In Process
FALSE

R-HSR-VAC-CRYOMOD.08.04
6.02.03.06.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of connection points for the interconnect module and ACBS to the cryogenic supply and return lines for all cooling loops.
01/08/2026
In Process
FALSE

HSR-VAC-CYROMOD : HSR Vacuum RF Cyrostat Modifications

HSR-VAC-HELICAL

P-HSR-VAC-HELICAL.01
6.02.03.06.03
The inner layer of copper shall have a RRR greater than TBD after installation.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.02
6.02.03.06.03
The innermost surface of the beam pipe shall have a secondary electron yield (SEY) below TBD.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.03
6.02.03.06.03
The beam pipe shall be designed to have a maximum operating temperature less than 10 (K).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.04
6.02.03.06.03
The beam aperture for the snake magnet shall be greater than 82 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.05
6.02.03.06.03
The beam aperture for the ends of the snake magnet shall taper to match the arc section beam screen aperture.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.06
6.02.03.06.03
No more than TBD (mm) of stainless steel shall be exposed to the beam in order to accommodate the transverse removals on the weld seam.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.07
6.02.03.06.03
The magnetic permeability of the beam pipe at 300 (K) @ 500 (Oe) magnetization shall be less than TBD.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.08
6.02.03.06.03
The magnetic permeability of the beam pipe at 4 K @ 500 Oe magnetization shall be less than TBD.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.09
6.02.03.06.03
The ends of snake beam pipe shall be aligned within 1 degree of the orbit plane.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.10
6.02.03.06.03
The Beam pipe Outer Diameter (OD) shall be be equal to or less than the RHIC (HLX) snake magnet beam pipe OD. (ref. RHIC drawing number 12011226).
02/09/2026
Reviewed
FALSE

HSR-VAC-SNAKE : HSR Vacuum Snake Beam Pipe

HSR-INJ : HSR Hadron Ring Injection System (WBS 6.05.03)

F-HSR-INJ.08.01
6.02.03
The HSR injection line magnets excluding the induction septum shall provide a half physical aperture greater than 6σ for the injected beam.
02/09/2026
Approved
FALSE

F-HSR-INJ.08.02
6.02.03
The HSR induction septum shall provide a half physical aperture greater than 5σ for the injected beam.
02/09/2026
Approved
FALSE

F-HSR-INJ.08.03
6.02.03
The HSR induction septum shall provide a half physical aperture greater than 6σ for the circulating beam.
02/09/2026
Approved
FALSE

HSR-INJ EXTERNALS
Requirements who's parents are in other sub-systems.

F-HSR-INJ.01
6.02.03
The HSR injection system shall utilize the existing RHIC injector chain upstream of the RHIC-ATR D26 Dipole magnet with no modifications.
02/09/2026
Approved
FALSE

F-HSR-INJ.02
6.02.03
The HSR injection system, consisting of the transport beamline, septum magnet and injection kickers, shall be capable of transporting a maximum beam rigidity of 81.12Tm from the transport line to IR4 central area and injecting it into the HSR.
02/09/2026
Approved
FALSE

F-HSR-INJ.03
6.02.03
The HSR Injection System design shall use a warm transport line in arc 6-4 as continuation of the Injection line to transport the hadron beam to the injection system located in IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ.04
6.02.03
The HSR injection transport beamline shall be able to transport polarized beam with less than 5% polarization loss.
02/09/2026
Approved
FALSE

F-HSR-INJ.05
6.02.03
The HSR injection system shall be able to inject all beam species with less than 5% beam emittance increase.
02/09/2026
Approved
FALSE

F-HSR-INJ.06
6.02.03
The HSR injection system shall be able to fill the HSR with 290 consecutive bunches without interruption.
02/09/2026
Approved
FALSE

F-HSR-INJ.07
6.02.03
The HSR injection system shall be able to fill the HSR with one(1) bunch per AGS cycle for polarized proton, two(2) bunches per AGS cycle for ion beams.
02/09/2026
Approved
FALSE

F-HSR-INJ.08
6.02.03
The HSR injection system transfer line shall provide the following physical aperture:
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

HSR-INJ-MAG : HSR Hadron Ring Injection Magnets (WBS 6.05.03.01)

HSR-INJ-MAG-CH : HSR Injector Magnet DVERT_1 (WBS 6.05.03.01)

HSR-INJ-MAG-CV : HSR Injector Magnet Ver Corr (WBS 6.05.03.01)

HSR-INJ-MAG-D1 : HSR Injector Magnet D1 (WBS 6.05.03.01)

HSR-INJ-MAG-D2 : HSR Injector Magnet D2 (WBS 6.05.03.01)

HSR-INJ-MAG-D3 : HSR Injector Magnet D3 (WBS 6.05.03.01)

HSR-INJ-MAG-D4 : HSR Injector Magnet D4 (WBS 6.05.03.01)

HSR-INJ-MAG-DCSEPT : HSR Injector Magnet DC Septum (WBS 6.05.03.01)

P-HSR-INJ-MAG-DCSEPT.01.01
6.02.03.11.03
The magnet shall have a a single function horizontal bending dipole field centered on the injected beam axis which directs the injected beam to merge with the circulating beam .
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.02
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.03
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.04
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.05
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.06
6.02.03.11.03
The physical length of the magnet shall be less than or equal to <3.98(m)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.07
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.08
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.09
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.10
6.02.03.11.03
The magnet shall have a TBD(mm)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.11.00
6.02.03.11.03
The magnet shall be able to fit within the following volume constraints:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.11.01
6.02.03.11.03
The magnet volume occupied shall be Within a rectangular volume of; dz=TBD(mm) dx=TBD(mm) dy=TBD(mm) Note all ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.11.02.00
6.02.03.11.03
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.11.02.01
6.02.03.11.03
The magnetic field axis displacement tolerances: The field position tolerances with respect to the magnet center shall be within the following tolerance ranges dx=TBD dy=TBD dz= TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.01.11.02.02
6.02.03.11.03
The magnetic field rotational alignment tolerances: The field rotational tolerances wrt the primary magnet axes shall be within the following tolerance ranges About X=TBD About Y=na About Z=TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.01
6.02.03.11.03
The Integrated Dipole Field B Shall be = 4.12(Tm)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.02
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.03
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.04
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.05
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.06
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.07
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.07.01.00
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.07.01.01
6.02.03.11.03
The magnet install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-340(um) dy=+/-170(um) dz= na
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.02.07.01.02
6.02.03.11.03
The magnet rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/-0.021 (mRad) About Y=+/-0.043 (mRad) About Z=na
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.00
6.02.03.11.03
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.01
6.02.03.11.03
The magnet field homogeneity shall be measured at a reference radius of TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.02
6.02.03.11.03
The magnet field homogeneity shall be measured at a reference field of 1.04(T)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03
6.02.03.11.03
The magnet bore field SHALL have the following multipole content . Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.01
6.02.03.11.03
b1= 10000 , a1+/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.02
6.02.03.11.03
b2 +/- TBD , a2+/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.03
6.02.03.11.03
b3 < +/- TBD , a3 < +/-TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.04
6.02.03.11.03
b4 < +/- TBD , a4 < +/-TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.05
6.02.03.11.03
b5 < +/- TBD , a5 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.06
6.02.03.11.03
b6 < +/- TBD , a6 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.07
6.02.03.11.03
b7 < +/- TBD , a7 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.08
6.02.03.11.03
b8 < +/- TBD , a8 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.09
6.02.03.11.03
b9 < +/- TBD , a9 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.10
6.02.03.11.03
b10 < +/- TBD , a10 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.11
6.02.03.11.03
b11 < +/- TBD , a11 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.12
6.02.03.11.03
b12 < +/- TBD , a12 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.13
6.02.03.11.03
b13 < +/- TBD , a13 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.14
6.02.03.11.03
b14 < +/- TBD , a14 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.15
6.02.03.11.03
b15 < +/- TBD , a15 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.03.16
6.02.03.11.03
b16 < +/- TBD , a16 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.03.04.00
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.00
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.01
6.02.03.11.03
The harmonic reference radius and\or location at which the crosstalk shall be measured is at the same position as occupied by the circulating beam center after installation wrt the septum axis
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.02
6.02.03.11.03
The field (Bref) or design energy for which the crosstalk shall be measured is 1. The minimum injection energy 2. The maximum injection energy of the septum
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03
6.02.03.11.03
The magnet shall have the following crosstalk Multipole content or dB/B within at the specified measurement volume. The septum fringe field on the HSR circulating beam location shall not exceed 1% of the HSR main bending field at that energy
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.01
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.02
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.03
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.04
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.05
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.06
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.07
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.08
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.09
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.10
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.11
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.12
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.13
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.14
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.15
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.04.03.16
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.05.00
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.05.01
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.05.02
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.00
6.02.03.11.03
The magnet shall be designed to be cooled and sustained at an operational temperature range of +25 (C) to +35 (C).
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.01
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.02
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.03
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.04
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.05
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.06
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.07
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.06.08
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.07.00
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.07.01
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.07.02
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.07.03
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.08.00
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.08.01
6.02.03.11.03
The magnet coils shall pass a Hi-Pot test to confirm the magnet can meet the maximum Voltage seen in operation +500 Volts, i.e. Vmax+500(V)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.08.02
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.08.03
6.02.03.11.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.09.00
6.02.03.11.03
The magnet shall be able to sustain 30 years of EIC operation under nominal conditions. During this time the magnet is expected to survive 30000 power cycles.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-DCSEPT.10.00
6.02.03.11.03
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit should be taken as a guide for the design process. The actual upper limit the magnet will see in operation will need further analysis and will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

HSR-INJ-MAG-INDSEPT : HSR Injector Magnet Induction Septum (WBS 6.05.03.01)

P-HSR-INJ-MAG-INDSEPT.01.01
6.02.03.11.02.01.01
The magnet shall have a a single function horizontal bending dipole field centered on the injected beam axis which directs the injected beam to merge with the circulating beam .
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.02
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.03
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.04
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.05
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.06
6.02.03.11.02.01.01
The physical length of the magnet shall be less than or equal to <1.5(m)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.07
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.08
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.09
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.10
6.02.03.11.02.01.01
The magnet shall have a TBD(mm)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.11.00
6.02.03.11.02.01.01
The magnet shall be able to fit within the following volume constraints:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.11.01
6.02.03.11.02.01.01
The magnet volume occupied shall be Within a rectangular volume of; dz=TBD(mm) dx=TBD(mm) dy=TBD(mm) Note all ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.11.02.00
6.02.03.11.02.01.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.11.02.01
6.02.03.11.02.01.01
The magnetic field axis displacement tolerances: The field position tolerances with respect to the magnet center shall be within the following tolerance ranges dx=TBD dy=TBD dz= TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.01.11.02.02
6.02.03.11.02.01.01
The magnetic field rotational alignment tolerances: The field rotational tolerances wrt the primary magnet axes shall be within the following tolerance ranges About X=TBD About Y=na About Z=TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.01
6.02.03.11.02.01.01
The Integrated Dipole Field B Shall be = 1.51(Tm)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.02
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.03
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.04
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.05
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.06
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.07
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.07.01.00
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.07.01.01
6.02.03.11.02.01.01
The magnet install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-340(um) dy=+/-170(um) dz= na
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.02.07.01.02
6.02.03.11.02.01.01
The magnet rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/-0.057 (mRad) About Y=+/-0.113 (mRad) About Z=na
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.00
6.02.03.11.02.01.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.01
6.02.03.11.02.01.01
The magnet field homogeneity shall be measured at a reference radius of TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.02
6.02.03.11.02.01.01
The magnet field homogeneity shall be measured at a reference field of 1.01(T)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03
6.02.03.11.02.01.01
The magnet bore field SHALL have the following multipole content . Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.01
6.02.03.11.02.01.01
b1= 10000 , a1+/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.02
6.02.03.11.02.01.01
b2 +/- TBD , a2+/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.03
6.02.03.11.02.01.01
b3 < +/- TBD , a3 < +/-TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.04
6.02.03.11.02.01.01
b4 < +/- TBD , a4 < +/-TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.05
6.02.03.11.02.01.01
b5 < +/- TBD , a5 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.06
6.02.03.11.02.01.01
b6 < +/- TBD , a6 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.07
6.02.03.11.02.01.01
b7 < +/- TBD , a7 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.08
6.02.03.11.02.01.01
b8 < +/- TBD , a8 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.09
6.02.03.11.02.01.01
b9 < +/- TBD , a9 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.10
6.02.03.11.02.01.01
b10 < +/- TBD , a10 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.11
6.02.03.11.02.01.01
b11 < +/- TBD , a11 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.12
6.02.03.11.02.01.01
b12 < +/- TBD , a12 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.13
6.02.03.11.02.01.01
b13 < +/- TBD , a13 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.14
6.02.03.11.02.01.01
b14 < +/- TBD , a14 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.15
6.02.03.11.02.01.01
b15 < +/- TBD , a15 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.03.16
6.02.03.11.02.01.01
b16 < +/- TBD , a16 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.03.04.00
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.00
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.01
6.02.03.11.02.01.01
The harmonic reference radius and\or location at which the crosstalk shall be measured is at the same position as occupied by the circulating beam center after installation wrt the septum axis
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.02
6.02.03.11.02.01.01
The field (Bref) or design energy for which the crosstalk shall be measured is 1. The minimum injection energy 2. The maximum injection energy of the septum
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03
6.02.03.11.02.01.01
The magnet shall have the following crosstalk Multipole content or dB/B within at the specified measurement volume. The septum fringe field on the HSR circulating beam location shall not exceed 1% of the HSR main bending field at that energy
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.01
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.02
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.03
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.04
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.05
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.06
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.07
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.08
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.09
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.10
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.11
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.12
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.13
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.14
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.15
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.04.03.16
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.05.00
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.05.01
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.05.02
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.00
6.02.03.11.02.01.01
The magnet shall be designed to be cooled and sustained at an operational temperature range of +25 (C) to +35 (C).
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.01
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.02
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.03
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.04
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.05
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.06
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.07
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.06.08
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.07.00
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.07.01
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.07.02
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.07.03
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.08.00
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.08.01
6.02.03.11.02.01.01
The magnet coils shall pass a Hi-Pot test to confirm the magnet can meet the maximum Voltage seen in operation +500 Volts, i.e. Vmax+500(V)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.08.02
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.08.03
6.02.03.11.02.01.01

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.09.00
6.02.03.11.02.01.01
The magnet shall be able to sustain 30 years of EIC operation under nominal conditions. During this time the magnet is expected to survive 30000 power cycles.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-INDSEPT.10.00
6.02.03.11.02.01.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit should be taken as a guide for the design process. The actual upper limit the magnet will see in operation will need further analysis and will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

HSR-INJ-MAG-Q1 : HSR Injector Magnet Q2 (WBS 6.05.03.01)

HSR-INJ-MAG-Q2 : HSR Injector Magnet Q2 (WBS 6.05.03.01)

HSR-INJ-MAG-Q3 : HSR Injector Magnet Q3 (WBS 6.05.03.01)

HSR-INJ-MAG-QD1 : HSR Injector Magnet QD1 (WBS 6.05.03.01)

HSR-INJ-MAG-CHV1

HSR-INJ-MAG-CHV2

HSR-INJ-MAG-DV1

HSR-INJ-MAG-DW0

HSR-INJ-MAG-Q50

HSR-INJ-MAG-Q60

HSR-INJ-MAG-Q80

HSR-INJ-MAG-QD2

HSR-INJ-MAG-QF1

HSR-INJ-MAG-QF2

HSR-INJ-MAG-YQ1

P-HSR-INJ-MAG-YQ1.01.01
6.02.03.03.03
The magnet shall have a a single function horizontal bending dipole field centered on the injected beam axis.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.02
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.03
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.04
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.05
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.06
6.02.03.03.03
The physical length of the magnet shall be less than or equal to <0.73(m)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.07
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.08
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.09
6.02.03.03.03
The magnet pole tip radius shall be greater than or equal ~37.88(mm)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.10
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.11.00
6.02.03.03.03
The magnet shall be able to fit within the following volume constraints:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.11.01
6.02.03.03.03
The magnet volume occupied shall be approved by the EIC engineering team to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.11.02.00
6.02.03.03.03
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.11.02.01
6.02.03.03.03
The magnetic field axis displacement tolerances: This is an existing magnet its not possible to change the field position relative to the existing magnet structure. as such this requirment is not applicale.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.01.11.02.02
6.02.03.03.03
The magnetic field rotational alignment tolerances: This is an existing magnet its not possible to change the field rotation relative to the existing magnet structure. as such this requirment is not applicale.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.01
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.02
6.02.03.03.03
The Integrated Gradient Field G Shall be = 12.11(T)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.03
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.04
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.05
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.06
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.07
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.07.01.00
6.02.03.03.03
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.07.01.01
6.02.03.03.03
The magnet install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-340(um) dy=+/-170(um) dz= na
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.02.07.01.02
6.02.03.03.03
The magnet rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/-0.116 (mRad) About Y=+/-0.233 (mRad) About Z=na
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.00
6.02.03.03.03
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.01
6.02.03.03.03
The magnet field homogeneity shall be measured at a reference radius of 23(mm)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.02
6.02.03.03.03
The magnet field homogeneity shall be measured at a reference field of 3.31(T)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03
6.02.03.03.03
This is an existing magnet the magnet bore field is assumed to have the same multipole content as per the existing YP1,XP1 magnets. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.01
6.02.03.03.03
b1+/- TBD, a1+/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.02
6.02.03.03.03
b2=10000 , a2+/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.03
6.02.03.03.03
b3 < +/- TBD , a3 < +/-TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.04
6.02.03.03.03
b4 < +/- TBD , a4 < +/-TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.05
6.02.03.03.03
b5 < +/- TBD , a5 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.06
6.02.03.03.03
b6 < +/- TBD , a6 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.07
6.02.03.03.03
b7 < +/- TBD , a7 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.08
6.02.03.03.03
b8 < +/- TBD , a8 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.09
6.02.03.03.03
b9 < +/- TBD , a9 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.10
6.02.03.03.03
b10 < +/- TBD , a10 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.11
6.02.03.03.03
b11 < +/- TBD , a11 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.12
6.02.03.03.03
b12 < +/- TBD , a12 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.13
6.02.03.03.03
b13 < +/- TBD , a13 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.14
6.02.03.03.03
b14 < +/- TBD , a14 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.15
6.02.03.03.03
b15 < +/- TBD , a15 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.03.16
6.02.03.03.03
b16 < +/- TBD , a16 < +/- TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.03.04.00
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.00
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.01
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.02
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.01
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.02
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.03
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.04
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.05
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.06
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.07
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.08
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.09
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.10
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.11
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.12
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.13
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.14
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.15
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.04.03.16
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.05.00
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.05.01
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.05.02
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.00
6.02.03.03.03
The magnet shall be designed to be cooled and sustained at an operational temperature range of +25 (C) to +35 (C).
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.01
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.02
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.03
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.04
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.05
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.06
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.07
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.06.08
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.07.00
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.07.01
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.07.02
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.07.03
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.08.00
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.08.01
6.02.03.03.03
The magnet coils shall pass a Hi-Pot test to confirm the magnet can meet the maximum Voltage seen in operation +500 Volts, i.e. Vmax+500(V)
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.08.02
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.08.03
6.02.03.03.03

02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.09.00
6.02.03.03.03
The magnet shall be able to sustain 30 years of EIC operation under nominal conditions. During this time the magnet is expected to survive 30000 power cycles.
02/09/2026
In Process
FALSE

P-HSR-INJ-MAG-YQ1.10.00
6.02.03.03.03
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit should be taken as a guide for the design process. The actual upper limit the magnet will see in operation will need further analysis and will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

HSR-INJ-PS : HSR Hadron Ring Injection Power Supplys (WBS 6.05.03.02)

HSR-INJ-PS-CH : HSR Injector Power supply Hor Corr (WBS 6.05.03.02)

HSR-INJ-PS-CV : HSR Injector Power supply Vert Corr (WBS 6.05.03.02)

HSR-INJ-PS-D1 : HSR Injector Power supply D1 (WBS 6.05.03.02)

HSR-INJ-PS-D2 : HSR Injector Power supply D2 (WBS 6.05.03.02)

HSR-INJ-PS-D3 : HSR Injector Power supply D3 (WBS 6.05.03.02)

HSR-INJ-PS-D4 : HSR Injector Power supply D4 (WBS 6.05.03.02)

HSR-INJ-PS-DCSEPT : HSR Injector Power supply DC Septum (WBS 6.05.03.02)

P-HSR-INJ-PS-DCSEPT.1
6.02.03.11.03.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.2
6.02.03.11.03.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.3
6.02.03.11.03.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.4
6.02.03.11.03.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.6
6.02.03.11.03.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.7
6.02.03.11.03.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.8
6.02.03.11.03.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.9
6.02.03.11.03.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.10
6.02.03.11.03.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.11
6.02.03.11.03.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.12
6.02.03.11.03.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.13
6.02.03.11.03.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.14
6.02.03.11.03.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.15
6.02.03.11.03.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.16
6.02.03.11.03.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.17
6.02.03.11.03.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.18
6.02.03.11.03.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.19
6.02.03.11.03.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.20
6.02.03.11.03.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.21
6.02.03.11.03.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.22
6.02.03.11.03.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.23
6.02.03.11.03.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.24
6.02.03.11.03.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.25
6.02.03.11.03.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.26
6.02.03.11.03.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.27
6.02.03.11.03.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.33
6.02.03.11.03.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.34
6.02.03.11.03.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.35
6.02.03.11.03.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DCSEPT.36
6.02.03.11.03.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-INDSEPT : HSR Injector Power supply IND Septum (WBS 6.05.03.02)

P-HSR-INJ-PS-INDSEPT.1
6.02.03.11.02.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.2
6.02.03.11.02.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.3
6.02.03.11.02.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.4
6.02.03.11.02.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.6
6.02.03.11.02.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.7
6.02.03.11.02.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.8
6.02.03.11.02.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.9
6.02.03.11.02.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.10
6.02.03.11.02.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.11
6.02.03.11.02.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.12
6.02.03.11.02.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.13
6.02.03.11.02.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.14
6.02.03.11.02.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.15
6.02.03.11.02.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.16
6.02.03.11.02.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.17
6.02.03.11.02.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.18
6.02.03.11.02.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.19
6.02.03.11.02.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.20
6.02.03.11.02.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.21
6.02.03.11.02.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.22
6.02.03.11.02.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.23
6.02.03.11.02.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.24
6.02.03.11.02.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.25
6.02.03.11.02.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.26
6.02.03.11.02.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.27
6.02.03.11.02.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.33
6.02.03.11.02.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.34
6.02.03.11.02.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.35
6.02.03.11.02.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-INDSEPT.36
6.02.03.11.02.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-Q1 : HSR Injector Power supply Q1 (WBS 6.05.03.02)

HSR-INJ-PS-Q2 : HSR Injector Power supply Q2 (WBS 6.05.03.02)

HSR-INJ-PS-Q3 : HSR Injector Power supply Q3 (WBS 6.05.03.02)

HSR-INJ-PS-QD1 : HSR Injector Power supply QD1 (WBS 6.05.03.02)

P-HSR-INJ-PS-QD1.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD1.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-CHV1

P-HSR-INJ-PS-CHV1.1
6.02.03.04.01
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.2
6.02.03.04.01
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.3
6.02.03.04.01
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.4
6.02.03.04.01
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.6
6.02.03.04.01
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.7
6.02.03.04.01
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.8
6.02.03.04.01
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.9
6.02.03.04.01
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.10
6.02.03.04.01
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.11
6.02.03.04.01
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.12
6.02.03.04.01
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.13
6.02.03.04.01
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.14
6.02.03.04.01
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.15
6.02.03.04.01
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.16
6.02.03.04.01
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.17
6.02.03.04.01
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.18
6.02.03.04.01
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.19
6.02.03.04.01
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.20
6.02.03.04.01
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.21
6.02.03.04.01
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.22
6.02.03.04.01
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.23
6.02.03.04.01
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.24
6.02.03.04.01
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.25
6.02.03.04.01
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.26
6.02.03.04.01
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.27
6.02.03.04.01
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.33
6.02.03.04.01
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.34
6.02.03.04.01
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.35
6.02.03.04.01
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV1.36
6.02.03.04.01
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-CHV2

P-HSR-INJ-PS-CHV2.1
6.02.03.04.01
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.2
6.02.03.04.01
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.3
6.02.03.04.01
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.4
6.02.03.04.01
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.6
6.02.03.04.01
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.7
6.02.03.04.01
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.8
6.02.03.04.01
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.9
6.02.03.04.01
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.10
6.02.03.04.01
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.11
6.02.03.04.01
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.12
6.02.03.04.01
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.13
6.02.03.04.01
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.14
6.02.03.04.01
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.15
6.02.03.04.01
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.16
6.02.03.04.01
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.17
6.02.03.04.01
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.18
6.02.03.04.01
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.19
6.02.03.04.01
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.20
6.02.03.04.01
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.21
6.02.03.04.01
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.22
6.02.03.04.01
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.23
6.02.03.04.01
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.24
6.02.03.04.01
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.25
6.02.03.04.01
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.26
6.02.03.04.01
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.27
6.02.03.04.01
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.33
6.02.03.04.01
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.34
6.02.03.04.01
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.35
6.02.03.04.01
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-CHV2.36
6.02.03.04.01
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-DV1

P-HSR-INJ-PS-DV1.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DV1.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-DW0

P-HSR-INJ-PS-DW0.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-DW0.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-Q50

P-HSR-INJ-PS-Q50.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q50.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-Q60

P-HSR-INJ-PS-Q60.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q60.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-Q80

P-HSR-INJ-PS-Q80.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-Q80.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-QD2

P-HSR-INJ-PS-QD2.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QD2.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-QF1

P-HSR-INJ-PS-QF1.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF1.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-QF2

P-HSR-INJ-PS-QF2.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-QF2.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PS-YQ1

P-HSR-INJ-PS-YQ1.1
6.02.03.04.02
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.2
6.02.03.04.02
The maximum magnet string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.3
6.02.03.04.02
The maximum magnet string inductance to be powered shall be TBD H
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.4
6.02.03.04.02
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.6
6.02.03.04.02
The voltage to ground of the magnet being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.7
6.02.03.04.02
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.8
6.02.03.04.02
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.9
6.02.03.04.02
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.10
6.02.03.04.02
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.11
6.02.03.04.02
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.12
6.02.03.04.02
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.13
6.02.03.04.02
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.14
6.02.03.04.02
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.15
6.02.03.04.02
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.16
6.02.03.04.02
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.17
6.02.03.04.02
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.18
6.02.03.04.02
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.19
6.02.03.04.02
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.20
6.02.03.04.02
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.21
6.02.03.04.02
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.22
6.02.03.04.02
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.23
6.02.03.04.02
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.24
6.02.03.04.02
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.25
6.02.03.04.02
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.26
6.02.03.04.02
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.27
6.02.03.04.02
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.33
6.02.03.04.02
The current required to be shunted through the magnet shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.34
6.02.03.04.02
The magnet turns ratio shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.35
6.02.03.04.02
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PS-YQ1.36
6.02.03.04.02
The design shall have thermal switches TBD
02/09/2026
In Process
FALSE

HSR-INJ-PPD : HSR Hadron Ring Injection Pulsed Power Devices System (WBS 6.05.03.04)

HSR-INJ-PPD-MAG_SL_KICK : HSR Injector Pulsed power Stripline kicker (WBS 6.05.03.02)

P-HSR-INJ-PPD-MAG_SL_KICK.1
6.02.03.11.01
The kicker location shall be in the HSR IR4 straight section.
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.2
6.02.03.11.01
The kickers shall fit within the given slot width of TBD (m)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.3
6.02.03.11.01
The kickers shall fit within the given slot length of 20 (m). (this includes the bellows length)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.4
6.02.03.11.01
The kickers shall fit within the given slot heignt of TBD (m)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.5
6.02.03.11.01
The number of kickers shall be 16
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.6
6.02.03.11.01
The kicker striplines shall maintain a minimum horizontal half aperture of TBD (cm)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.7
6.02.03.11.01
The rise time shall be <9 (nS)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.8
6.02.03.11.01
The fall time shall be less than <1 us
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.9
6.02.03.11.01
The flat top time shall be longer than 2x the transit time(~6nS) in addition to the pulse width(~25nS) through the kicker, so a flat top of longer than ~35nS is required.
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.10
6.02.03.11.01
The flat top repeatability shall be (+/-) 1 %
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.11
6.02.03.11.01
The uniformity of the flattop shall be (+/-) 1 %
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.12
6.02.03.11.01
The total deflecting angle for all kickers shall be 0.61 (mRad)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.13
6.02.03.11.01
The burst mode rep rate spec shall be 2 pulses sepearted by 200mS every 5(S)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.14
6.02.03.11.01
The maximum kicker voltage shall be +/-22000 (Volts), 44000V across both kickers.
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.15
6.02.03.11.01
The Kicker characteristic impedance shall 50(ohms)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.16
6.02.03.11.01
The kicker shall be air cooled
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.17
6.02.03.11.01
The jitter of the rise time between the positive and negative voltage shall be less than 2(nS)
02/09/2026
In Process
FALSE

HSR-INJ-PPD-PS_SL_KICK : HSR Injector Pulsed power Power Supply Stripline kicke (WBS 6.05.03.02)

HSR-INJ-PPD-PS_SLINE_KICK

P-HSR-INJ-PPD-PS_SLINE_KICK.1
6.02.03.11.01
The number of Independent functions on the stripline kickers being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.2
6.02.03.11.01
The maximum strip line kicker string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.3
6.02.03.11.01
The maximum strip line kicker string Inductance\Capitance to be powered shall be TBD (H\F)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.4
6.02.03.11.01
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.6
6.02.03.11.01
The voltage to ground of the strip line kicker being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.7
6.02.03.11.01
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.8
6.02.03.11.01
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.9
6.02.03.11.01
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.10
6.02.03.11.01
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.11
6.02.03.11.01
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.12
6.02.03.11.01
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.13
6.02.03.11.01
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.14
6.02.03.11.01
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.15
6.02.03.11.01
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.16
6.02.03.11.01
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.17
6.02.03.11.01
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.18
6.02.03.11.01
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.19
6.02.03.11.01
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.20
6.02.03.11.01
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.21
6.02.03.11.01
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.22
6.02.03.11.01
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.23
6.02.03.11.01
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.24
6.02.03.11.01
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.25
6.02.03.11.01
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.26
6.02.03.11.01
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.27
6.02.03.11.01
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.35
6.02.03.11.01
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

HSR-INJ-VAC : HSR Hadron Ring Injection Vacuum System (WBS 6.05.03.04)

HSR-INJ-INST : HSR Hadron Ring Injection Instrumentation System (WBS 6.05.05.02)

F-HSR-INJ-INST.01
6.02.03
The HSR injection line shall have Beam instrumentation to monitor the following beam parameters: beam orbit, beam current, beam transverse sizes, beam loss rate.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.02
6.02.03
Beam instrumentation shall be capable of providing operational data in the injection configuration for all the species and energies given in MPT. [Document: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.03
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use existing BPMs with the same requirements as the existing RHIC-ATR BPMs.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.04
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall use HSR BPM electronics for the Injection line BPMs.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.05
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use the existing Phosphor screen beam profile monitors with the same requirements as existing in the RHIC-ATR Phosphor screen beam profile monitors.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.06
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use the existing Current transformers with the same requirements as existing in the RHIC-ATR Current transformers.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.07
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use the existing Beam loss monitors with the same requirements as existing in the RHIC-ATR Beam loss monitors.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.08
6.02.04.02
The new warm transfer line from the RHIC-ATR to the HSR shall have strategically placed chipmunks for radiation control.
02/09/2026
Approved
FALSE

HSR-INJ-INST-BC : HSR ATR Instrumentation Beam Charge Monitor (WBS 6.05.05.02)

P-HSR-INJ-INST-BC.01
6.02.03.05.07
The HSR Injection beamline bunch charge monitors shall measure single bunches over the measurement range up to 44 (nC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.02
6.02.03.05.07
The HSR Injection beamline bunch charge monitors shall have a measurement resolution of at least 100 (pC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.03
6.02.03.05.07
The HSR Injection beamline bunch charge monitor shall be capable of charge measurements for bunch lengths between 40 to 150 (cm) (rms).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.04
6.02.03.05.07
The HSR Injection beamline bunch charge monitor measurement shall vary less than +/- 0.1 (%) per mm of beam offset within half of the beamline aperture for charges greater than 5 (nC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.05
6.02.03.05.07
The HSR Injection beamline bunch charge monitor system measurement accuracy shall vary less than +/- 5 (%) shot to shot for bunches greater than 5 (nC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.06
6.02.03.05.07
The HSR Injection beamline bunch charge monitor sensor shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.07
6.02.03.05.07
The HSR Injection beamline bunch charge monitor system shall have a remote controlled self calibration system.
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.08
6.02.03.05.07
The HSR Injection beamline bunch charge monitor calibration system shall be capable of providing pulses with a defined charge value that has greater than +/- 2 (%) accuracy.
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.09
6.02.03.05.07
The HSR Injection beamline bunch charge monitor shall provide bunch charge measurements at a rate less than 5 (Hz).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.10
6.02.03.05.07
The HSR Injection beamline bunch charge monitor shall be a radiation hardened device.
02/09/2026
Approved
FALSE

HSR-INJ-INST-BC-CM

R-HSR-INJ-INST-BC-CM.01.01
6.05.05.02
Instrumentation Group shall provide design details that defines the location limitations and the mechanical connection for the bunch charge monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.01.02
6.05.05.03
The physics group shall indicate the location of the bunch charge monitor in the lattice designated by a marker that satisfies the instrumentation groups design limits
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.01.03
6.05.05.02
Vacuum group shall define the installation details for the mechanical connection for bunch charge monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.01.04
6.05.05.02
ASR System Installation and Final Integration shall provide funding and scheduling to install bunch charge monitor by the appropriate technical support group and its subsystems which satisfies the vacuum group design.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.02.01
6.05.05.02
Instrumentation Group shall provide radiation design limits for the bunch charge monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.02.02
6.05.05.02
Physics Group shall provide the expected radiation dose in its installation location and if required the design of the radiation shielding for the bunch charge monitor and its associated subsystems to mitigate exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.02.03
6.05.05.02
Mechanical engineering group shall define the installation details of the required radiation shielding design for the bunch charge monitor assembly and its associated subsystems to mitigate exposure which satisfies the Physics Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.02.04
6.05.05.02
ASR System Installation and Final Integration shall provide funding and scheduling to install bunch charge monitor required radiation shielding design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.03.01
6.05.05.02
Instrumentation Group shall provide thermal design limits and required thermal regulation design for the bunch charge monitor and its associated subsystems exposure
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.03.02
6.05.05.02
Mechanical engineering group shall define the installation details for bunch charge monitor thermal regulation design.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.03.03
6.05.05.02
ASR System Installation and Final Integration shall provide funding and scheduling to install bunch charge monitor thermal regulation design by the appropriate technical support group which satisfies the vacuum group design.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.04.01
6.05.05.02
Instrumentation group shall provide design details that defines the signal cable connection for bunch charge monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.04.02
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to connect the bunch charge monitor required signal cable by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.04.03
6.05.05.02
Reference related beam charge monitor electronics interface document for signal cable routing interface details inside of tunnel. (I-HSR-INJ-INST-BC-ELEC.XX)
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.05.01
6.05.05.03
Instrumentation Group shall provide thermal design parameters for the bunch charge monitor assembly and its associated subsystems exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.05.02
6.05.05.03
Vacuum group shall incorporate the defined thermal design limits for the bunch charge monitor assembly into its bakeout procedure for the HSR beamline which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.05.03
6.05.05.02
Vacuum group shall define the cleanliness and installation details for the mechanical connection of the bunch charge monitor to the beamline.
01/08/2026
Reviewed
FALSE

R-HSR-INJ-INST-BC-CM.05.04
6.05.05.02
ASR System Installation and Final Integration shall provide funding and scheduling to insure cleanliness installation of the bunch charge monitor design by the appropriate technical support group which satisfies the vacuum group design.
01/08/2026
Reviewed
FALSE

HSR-INJ-INST-BC-ELEC

R-HSR-INJ-INST-BC-ELEC.01.01
6.05.05.02
Instrumentation group shall provide design details that defines the building, rack layouts and power utilities for bunch charge monitor electronics and its associated subsystems.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.01.02
6.05.05.02
Infrastructure group shall provide buildings, detailed drawings including rack layouts for the bunch charge monitor electronics and its subcomponents which satisfies the instrumentation group design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.01.03
6.05.05.02
Infrastructure group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the bunch charge monitor electronics and its subcomponents which satisfies the instrumentation group design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.01.04
6.05.05.02
Infrastructure group shall provide reliable air conditioning and humidity control in the bunch charge monitor electronic buildings which satisfies the instrumentation group design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.02.01
6.05.05.02
Instrumentation group shall provide the bunch charge monitor electronic rack and its subsystems design, including the spacial location, thermal and weight details.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.02.02
6.05.05.02
Instrumentation group shall provide the plan and funding for the procurement of the racks to house bunch charge monitor electronics and its sub components which satisfies the design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.02.03
6.05.05.02
Accelerator installation group shall provide funding and scheduling to move and install bunch charge monitor electronic racks by the appropriate technical support group and its subsystems which satisfies the instrumentation group design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.02.04
6.05.05.02
Accelerator installation group shall provide funding and scheduling for the installation of bunch charge monitor electronics into the racks by the appropriate technical support group which satisfies the instrumentation group design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.03.01
6.05.05.02
Instrumentation group shall provide the design and funding for the procurement of the ac cable distribution from the wall mount distribution to each bunch charge monitor electronic rack.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.03.02
6.05.05.02
Infustructure group shall provide design and funding for ac cable tray to contain the ac cable distribution from the wall mount distribution to each bunch charge monitor electronic rack.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.03.03
6.05.05.02
Accelerator support group shall provide funding and scheduling for the installation of ac cable and ac cable tray from the wall mount distribution to each bunch charge monitor electronic rack by the appropriate technical support group which satisfies the instrumentation group design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.04.01
6.05.05.02
Instrumentation group shall provide the design details defining the signal cable routing from the bunch charge monitor electronic and its associated subsystems into the tunnels.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.04.02
6.05.05.02
Infrastructure group shall provide tunnel penetrations for signal cables which satisfies the instrumentation group design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.04.03
6.05.05.02
Reference related bunch charge monitor interface document for signal cable termination iterface details inside of tunnel. (i-hsr-inst-bpm-pu.xx)
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.05.01
6.05.05.02
Machine protection system (mps) group shall define the design details including input connections and data required to monitor bunch charge monitor electronic status.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.05.02
6.05.05.02
Instrumentation group shall provide output from the mps interface the data which satisfies mps design.
09/24/2025
In Process
FALSE

R-HSR-INJ-INST-BC-ELEC.06.01
6.05.05.02
Reference related controls interface document for controls interface signal details. (i-hsr-cntrl-xxx.xx)
09/24/2025
In Process
FALSE

HSR-INJ-INST-BLM : HSR ATR Instrumentation Beam Loss Monitors (WBS 6.05.05.02)

HSR-INJ-INST-BPM : HSR ATR Instrumentation Beam Position Monitor (WBS 6.05.05.02)

HSR-INJ-INST-PM : HSR ATR Instrumentation Profile Monitor (WBS 6.05.05.02)

HSR-INJ-CONT : HSR Hadron Ring Injection Controls System (WBS 6.07.02)

HSR-INJ-CNTRL

HSR-INJ-DUMP

HSR-INJ-MPS

HSR-INJ-MPS-ABORT

HSR-INJ-PP : Pulsed Power

HSR-INST : HSR Instrumentation System (WBS 6.05.05)

HSR-INST-BPM : HSR Instrumentation Beam Position Monitor System (WBS 6.05.05.01)

HSR-INST-BPM-CRYO_CABLES : HSR Instrumentation Cryogenic Cables (WBS 6.05.05.01)

HSR-INST-BPM-ELEC : HSR Instrumentation Beam Position Monitoring Electronics (WBS 6.05.05.01)

P-HSR-INST-BPM-ELEC.01
6.02.03.05.01.01
The HSR BPM Electronics shall have the following capabilitys defined for the low intensity pilot injection energies, the ramp intensity energies and high intensity collision energies as defined in the Master Paramater :
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.01
6.02.03.05.01.01
The HSR BPM Electronics shall provide a measurement of a single bunch when there is a single bunch in the machine, else bunch-by-bunch measurements are not required.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.02
6.02.03.05.01.01
The HSR BPM Electronics shall provide one position measurement per turn which includes all bunches combined will be the narrowest (turn-by-turn) mode of sampling.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.03
6.02.03.05.01.01
The HSR BPM Electronics associated with the hadron BPM pickup installed between B0pF and B0ApF shall have the necessary bandwidth and characteristics to provide measurements for the hadron crabbing angle of 12.5 (mrad).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.04
6.02.03.05.01.01
The HSR BPM Electronics in the HSR arcs (defined in this case as from Q5 to Q5) need to be able to provide measurements during the store with an considerably shifted beam radial orbit. The BPMs here shall be able to measure a maximum radial orbit shift range of +\- 21 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02
6.02.03.05.01.01
The HSR BPM Electronics shall have the following time resolutions for data refresh defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.01
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an array of status 16 Bits, defining for each measurment. (Review SD file)
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.02
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an array of at least 1024 consecutive single-turn position measurements at a continuous rate of 1 Hz at the first injected bunch.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.03
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an array of at least 1 million consecutive single-turn position measurements at the first injected bunch.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.04
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering average beam orbit measurements at a continuous rate of 1 Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.05
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering bunch-by-bunch beam orbit measurements of a single turn at a continuous rate of TBD Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.06
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering the sum signal at rate of 1 Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.07
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of retrieving an array of at least 2048 single-turn position measurements prior to an ABORT.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.08
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an ADC sample measurements of a minimal of 4 turns at a rate of least 1 Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.09
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering fast orbit feedback measurements at a continuous rate of 10 kHz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the Injection beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.02.01
6.02.03.05.01.01
For 5 nC bunches at injection parameters, the BPM Electronics resolution when measuring one turn orbit shall not be larger than 2 mm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.02.02
6.02.03.05.01.01
For a 44 nC bunch at injection parameters, the BPM Electronics resolution when measuring one turn orbit shall not be larger than 0.2 mm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.03
6.02.03.05.01.01
For 5 nC bunches at injection parameters, the BPM Electronics resolution when measuring the averaged orbit over a 1 second period shall not be larger than 200 µm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.04
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the Ramping beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.04.03
6.02.03.05.01.01
For 44 nC bunch at acceleration ramp parameters, the BPM Electronics resolution when measuring the averaged orbit over a 1 second period shall not be larger than 20 µm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.04.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the collision beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05.03.01
6.02.03.05.01.01
For bunch charge of 5 nC and above, during spliting and bunch compression at collision energies, the BPM Electronics resolution when measuring the average orbit over a 1 second period shall not be larger than 100 µm RMS
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05.03.02
6.02.03.05.01.01
For bunch charge of 5 nC and above, post spliting and bunch compression at collision energies, the BPM Electronics resolution when measuring the average orbit over a 1 second period shall not be larger than 20µm RMS
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.06
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the fast feedback energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.06.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.07
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the slow feedback energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.07.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

R-HSR-INST-BPM-ELEC.01.01
6.04.06.01
Instrumentation Group shall provide design details that defines the building, rack layouts and power and LCW utilities for beam position monitor electronics and its associated subsystems.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.01.02
6.04.06.01
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the beam position monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.01.03
6.04.06.01
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the beam position monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.01.04
6.04.06.01
Infrastructure Group shall provide funding and scheduling for the installation of the LCW utilities for distribution to the beam position monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.01.05
6.04.06.01
Infrastructure Group shall provide indoor environmental control for the beam position monitor electronic buildings which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.02.01
6.04.06.01
Instrumentation Group shall provide the beam position monitor electronic rack and its subsystems design, including the Spacial location, thermal and weight details.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.02.02
6.04.06.01
Instrumentation Group shall provide the plan and funding for the procurement of the racks to house beam position monitor electronics and its sub components which satisfies the design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.02.03
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling to move and install beam position monitor electronic racks by the appropriate technical support group and its subsystems which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.02.04
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of beam position monitor electronics into the racks by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.03.01
6.04.06.01
Instrumentation Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each beam position monitor electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.03.02
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the design and AC cable tray to contain the AC cable distribution from the wall mount distribution to each beam position monitor electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.03.03
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable and AC cable tray from the wall mount distribution to each beam position monitor electronic rack by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.04.01
6.04.06.01
Instrumentation Group shall provide the design for water flow, pressure, supply temperature, water resistivity and heat load into water.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.04.02
6.04.06.01
Infrastructure Group shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.04.03
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the LCW piping design and procurement of materials from the wall distribution to connections to the beam position monitor electronic cooling loops which satisfies the Instrumentation Group design, including waterflow switches and one contact per switch.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.04.04
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of LCW piping from the wall mount distribution to each beam position monitor electronic DC Buss by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.05.01
6.04.06.01
Instrumentation Group shall provide the design and funding for procurement for each beam position monitor electronic UPS, including AC cable distribution from the wall mount distribution to each beam position monitor electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.05.02
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of UPS and AC cable distribution cabling by the appropriate technical support group which satisfies the Instrumentation Group design into each beam position monitor electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.06.01
6.04.06.01
Instrumentation Group shall provide the design details defining the signal cable routing from the beam position monitor electronic and its associated subsystems into the tunnels.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.06.02
6.04.06.01
Infrastructure group shall provide tunnel penetrations for signal cables which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.06.03
6.04.06.01
Reference related beam position monitor interface document for signal cable termination interface details inside of tunnel. (I-HSR-INST-BPM-PU.XX)
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.07.01
6.04.06.01
Machine Protection System (MPS) Group shall define the design details including input connections and data required to monitor beam position monitor electronic status.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.07.02
6.04.06.01
Instrumentation Group shall provide output from the MPS interface the data which satisfies MPS design.
01/08/2026
In Process
FALSE

R-HSR-INST-BPM-ELEC.08.01
6.04.06.01
Reference related controls interface document for Controls interface signal details. (I-HSR-CNTRL-XXX.XX)
01/08/2026
In Process
FALSE

HSR-INST-BPM-PU : Instrumentation Pickups

P-HSR-INST-BPM-PU.01
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall provide dual plane (horizontal and vertical) beam postional measurements.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) shall be positioned in the following locations:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.01
6.02.03.05.01.02
The HSR cryogenic Beam Position Monitor (BPM) pick-ups shall be placed in locations as close as possible to the existing RHIC stripline BPM in the straight sections approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02
6.02.03.05.01.02
The HSR Warm Beam Position Monitor (BPM) Pick-up (PU) shall be placed in the following locations approved by physics:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02.01
6.02.03.05.01.02
The HSR Warm BPM PU shall be added on both sides of the triplets to replace the RHIC Q1 and Q3 BPM.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02.02
6.02.03.05.01.02
The HSR Warm BPM PU shall be added in IR4 injection area for adequate measurement of both injected and circulating beam.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02.03
6.02.03.05.01.02
The HSR Warm BPM PU shall be added in IR2 cooling section for reliable alignment of hadron and electron beam.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.03
6.02.03.05.01.02
The HSR snake & spinrotator beam position monitor pick-up shall be placed in the helical magnets cyrostat with locations approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04
6.02.03.05.01.02
The HSR Interaction Region (IR) BPM PU shall be placed in the following locations approved by physics:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04.01
6.02.03.05.01.02
The HSR IR BPM PU shall in available locations as close as possible to the existing RHIC stripline BPM inside RHIC cryostats which are being reused
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04.02
6.02.03.05.01.02
The HSR IR BPM PU shall sighted on either side of IP6 where there is a different (nontraditional) beam pipe aperture.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04.03
6.02.03.05.01.02
The HSR IR BPM PU shall be installed between B0pF and B0ApF with the dedicated purpose of measuring the hadron crabbing angle of 12.5 (mrad).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01
6.02.03.05.01.02
The HSR cryogenic Beam Position Monitor (BPM) Pick-up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.01
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- 0.6 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.02
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- 0.6 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.03
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- 0.3 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.04
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- 0.3 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.02
6.02.03.05.01.02
The HSR warm Beam Position Monitor (BPM) Pick-up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.02.01
6.02.03.05.01.02
The HSR warm BPM PU mechanical center horizontal and vertical position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- 0.1 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.02.02
6.02.03.05.01.02
The HSR warm BPM PU mechanical center horizontal and vertical position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- 2.0 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.03
6.02.03.05.01.02
The HSR snake & spinrotator beam position monitor pick-up mechanical center shall be aligned relative to the magnetic centers of nearby helical magnets within at least 0.5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04
6.02.03.05.01.02
The HSR Interaction Region (IR) Beam Position Monitor (BPM) Pick-up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.01
6.02.03.05.01.02
The HSR IR BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.02
6.02.03.05.01.02
The HSR IR BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.03
6.02.03.05.01.02
The HSR IR BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.04
6.02.03.05.01.02
The HSR IR BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.04
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up housings shall have a +/- 1 degree roll tolerance with regards to BPM measurements.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.05
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.06
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall have the geometrical aperture defined by vacuum group and approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) shall have the following dynamic resolution offsets defined for the beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.02
6.02.03.05.01.02
The HSR warm beam position monitor pick-up shall have the dynamic resolution offsets over the horizontal and vertical beam position range with respect to magnetic element center of +/- 5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.03
6.02.03.05.01.02
The HSR snake & spin rotator Beam Position Monitor (BPM) Pick-Up (PU) shall have the following dynamic resolution offsets defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.03.01
6.02.03.05.01.02
At injection energies, the snake & spin rotator BPM PU shall fulfill resolution requirements over the vertical beam position range with respect to magnetic element center of +/- 30 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.03.02
6.02.03.05.01.02
At collision energies, the snake & spin rotator BPM PU shall fulfill resolution requirements over the horizontal beam position range of +/- 15 (mm) and vertical beam position range of +/- 10 (mm) with respect to magnetic element center.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.04
6.02.03.05.01.02
The HSR interaction region beam position monitor pick-up shall have the dynamic resolution offsets over horizontal beam position range of +/- 21 (mm) and vertical beam of +/- 10 (mm) position range with respect to magnetic element center.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.08
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall compatibly interface with the new coated sleeves that are being added to the HSR vacuum pipe.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.09
6.02.03.05.01.02
The HSR cryogenic beam position monitor pick-up shall be able to operate at cold temperatures [~4.2 (K)] with a heat load less than the budgeted heat load defined by cryogenic group and approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.10
6.02.03.05.01.02
The HSR beam position monitor pick-up shall be designed to be processed by the vacuum bakeout procedure for UHV processing. (EIC Doc#: EIC-VSG-SPC-023)
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.11
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Ups shall be designed to ensure the maximum temperatures of the components (due to heating by the beam) are acceptable for reliability and operations of the EIC over the planned operational life of 20 (yrs).
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.12
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD (Mgy).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.13
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) shall have the following button configuration symmetry.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.01
6.02.03.05.01.02
The HSR cyrogenic Beam Position Monitor (BPM) pick-up configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 200 microns.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.02
6.02.03.05.01.02
The HSR warm Beam Position Monitor (BPM) pick-up button configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 100 microns.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.03
6.02.03.05.01.02
The HSR snake and spinrotator Beam Position Monitor (BPM) pick-up configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 200 microns.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.04
6.02.03.05.01.02
The HSR interaction region Beam Position Monitor (BPM) pick-up configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 200 microns.
02/09/2026
In Process
FALSE

R-HSR-INST-BPM-PU.01.01
6.04.06.01
Instrumentation Group shall provide design details that defines the mechanical connection for beam position monitor button to the beam position monitor pick-up assembly.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.01.02
6.04.06.01
Instrumentation Group shall provide thermal design limits for the beam position monitor pick-up assembly deformation due to thermal exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.01.03
6.04.06.01
Mechanical engineering group shall define the design details for beam position monitor pickup assembly to satisfy the instrumentation thermal regulation design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.01.04
6.04.06.01
Vacuum group shall provide provisions to incorporate the beam position monitor pick-up assembly which satisfies the instrumentation and mechanical Group design into the beamline.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.01.05
6.04.06.01
Instrumentation Group shall provide the BPM buttons to be installed onto the beam position monitor pick-up assembly
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.02.01
6.04.06.01
The physics group shall indicate the location of the beam position monitor pick-up assembly in the lattice designated by a marker.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.02.02
6.04.06.01
Vacuum group shall define the installation details for the mechanical connection of beam position monitor pick-up assembly to the beamline.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.02.03
6.04.06.01
Vacuum group shall install the beam position monitor pick-up assembly into the vacuum chamber assembly.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.03.01
6.04.06.01
Physics Group shall provide the expected radiation dose in its installation location and if required the physics design of the radiation shielding for the beam position monitor pick-up assembly and its associated subsystems to mitigate exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.03.02
6.04.06.01
Instrumentation Group shall provide radiation design limits for the beam position monitor and cable radiation hardness and/or shielding required to mitigate damage from the expected radiation dose.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.04.01
6.04.06.01
Instrumentation Group shall provide design details that defines the signal cable connection for beam position monitor pick-up assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.04.02
6.04.06.01
ASR System Installation and Final Integration shall provide funding and scheduling to connect the beam position monitor required signal cable by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.04.03
6.04.06.01
Reference related beam position monitor electronics interface document for signal cable routing and installation interface details inside of tunnel. (I-HSR-INST-BPM-ELEC.XX)
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.05.01
6.04.06.01
Instrumentation Group shall provide thermal design details for beam position monitor buttons installed into the beam position monitor pick-up assembly.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.05.02
6.04.06.01
Vacuum group shall incorporate the defined thermal design limits for the beam position monitor pick-up assembly into its bakeout procedure for the HSR beamline which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.05.03
6.04.06.01
Vacuum group shall define the cleanliness and installation details for the mechanical connection of the beam position monitor pick-up assembly to the beamline.
01/08/2026
Reviewed
FALSE

R-HSR-INST-BPM-PU.05.04
6.04.06.01
Instrumentation Group shall provide funding to insure cleanliness installation of the beam position monitor pick-up design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

HSR-INST-BBLM : HSR Instrumentation Bunch-by-Bunch Loss Monitors (WBS 6.05.05.03)

HSR-INST-BBTM : HSR Instrumentation Base-band Tune Meter System (WBS 6.05.05.03)

HSR-INST-BLM : HSR Instrumentation Beam Loss Monitors (WBS 6.05.05.03)

HSR-INST-DCCT : HSR Instrumentation Current and Charge Monitor (WBS 6.05.05.03)

F-HSR-INST-DCCT.01
6.02.03
The DCCT shall be capable of operating in four main EIC parameter configurations (highest average current, highest peak current, ramp configuration and injection configuration) in the HSR. Refer to the MPT [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.01
6.02.03.05.02
The HSR DC Current Transformer shall measure the average beam current over the range of 0.390 (mA) to 1000 (mA).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.02
6.02.03.05.02
The HSR DC Current Transformer shall provide an average current measurement with a resolution of less than 5 (uA /√Hz).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.03
6.02.03.05.02
The HSR DC Current Transformer measurement drift tolerance shall be less than 10 (uA) over 1 (hr).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.04
6.02.03.05.02
The HSR DC Current Transformer system average beam current measurement shall have an absolute accuracy of better than +/- 2 (%).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.05
6.02.03.05.02
The HSR DC Current Transformer system shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.06
6.02.03.05.02
The impedance of HSR DC Current Transformer sensor shall be approved by beam physics.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.07
6.02.03.05.02
The HSR DC Current Transformer system shall have a remote controlled calibration system.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.08
6.02.03.05.02
The HSR DC Current Transformer Calibration system shall be capable of providing an equivalent DC current within +/- 1 (%) over the beam current range of 0.390 (mA) to 1000 (mA).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.09
6.02.03.05.02
The HSR DC Current Transformer digitizer rate shall be 720 (Hz) and stored in an array of 1 (s) duration for post mortum use.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.10
6.02.03.05.02
The HSR DC Current Transformer measured average current shall be archived at a rate of 1 (Hz).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.11
6.02.03.05.02
The HSR DC Current Transformer shall be a radiation hardened device.
02/09/2026
Approved
FALSE

HSR-INST-DCCT-CM

R-HSR-INST-DCCT-CM.01.01
6.05.05.03
Instrumentation Group shall provide design details that defines the location limitations and the mechanical connection for the DC current transformer assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.01.02
6.05.05.03
The physics group shall indicate the location of the DC current transformer in the lattice designated by a marker that satisfies the instrumentation groups design limits
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.01.03
6.05.05.03
Vacuum group shall define the installation details for the mechanical connection for DC current transformer assembly and its associated subsystems to the vacuum beamline.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.01.04
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to install DC current transformer by the appropriate technical support group and its subsystems which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.02.01
6.05.05.03
Instrumentation Group shall provide radiation design limits for the DC current transformer assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.02.02
6.05.05.03
Physics Group shall provide the expected radiation dose in its installation location and if required the design of the radiation shielding for the DC Current Transformer and its associated subsystems to mitigate exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.02.03
6.05.05.03
Mechanical Engineering group shall define the installation details of the required radiation shielding design for the DC current transformer assembly and its associated subsystems to mitigate exposure which satisfies the Physics Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.02.04
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to install DC current transformer required radiation shielding design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.03.01
6.05.05.03
Instrumentation Group shall provide thermal design limits and required thermal regulation design for the DC current transformer assembly and its associated subsystems exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.03.02
6.05.05.03
Mechanical engineering group shall define the installation details for DC current transformer thermal regulation design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.03.03
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to install DC current transformer thermal regulation design by the appropriate technical support group which satisfies the mechanical group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.04.01
6.05.05.03
Instrumentation Group shall provide the design for water flow, pressure, supply temperature and heat load into water.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.04.02
6.05.05.03
Infrastructure mechanical cooling shall provide water flow, pressure, supply temperature, water resistivity and heat load removal which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.04.03
6.05.05.03
Infrastructure mechanical cooling shall provide the piping design and procurement of materials from the cooling water distribution to connections to the DC current transformer cooling loops which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.04.04
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of piping from the cooling water distribution to each DC current transformer cooling loops by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.05.01
6.05.05.03
Instrumentation Group shall provide design details that defines the signal cable connection for DC current transformer assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.05.02
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to connect the DC current transformer required signal cable by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.05.03
6.05.05.03
Reference related DC current transformer electronics interface document for signal cable routing interface details inside of tunnel. (I-HSR-INST-DCCT-ELEC.XX)
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.06.03
6.05.05.03
Vacuum group shall define the cleanliness and installation details for the mechanical connection of the DC current transformer to the beamline.
01/08/2026
Reviewed
FALSE

R-HSR-INST-DCCT-CM.06.04
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to insure cleanliness installation of the DC current transformer design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

HSR-INST-DCCT-ELEC

R-HSR-INST-DCCT-ELEC.01.01
6.04.06.02
Instrumentation Group shall provide design details that defines the building, rack layouts and power utilities for DC current transformer electronics and its associated subsystems.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.01.02
6.04.06.02
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the DC current transformer electronics and its subcomponents which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.01.03
6.04.06.02
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the DC current transformer electronics and its subcomponents which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.01.04
6.04.06.02
Infrastructure Group shall provide reliable air conditioning and humidity control in the DC current transformer electronic buildings which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.02.01
6.04.06.02
Instrumentation Group shall provide the DC current transformer electronic rack and its subsystems design, including the Spacial location, thermal and weight details.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.02.02
6.04.06.02
Instrumentation Group shall provide the plan and funding for the procurement of the racks to house DC current transformer electronics and its sub components which satisfies the design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.02.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to move and install DC current transformer electronic racks by the appropriate technical support group and its subsystems which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.02.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of DC current transformer electronics into the racks by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.03.01
6.04.06.02
Instrumentation Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each DC current transformer electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.03.02
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the design and AC cable tray to contain the AC cable distribution from the wall mount distribution to each DC current transformer electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.03.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable and AC cable tray from the wall mount distribution to each DC current transformer electronic rack by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.04.01
6.04.06.02
Instrumentation Group shall provide the design details defining the signal cable routing from the DC current transformer electronic and its associated subsystems into the tunnels.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.04.02
6.04.06.02
Infrastructure group shall provide tunnel penetrations for signal cables which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.04.03
6.04.06.02
Reference related DC current transformer interface document for signal cable termination interface details inside of tunnel. (I-HSR-INST-BPM-PU.XX)
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.05.01
6.04.06.02
Machine Protection System (MPS) Group shall define the design details including input connections and data required to monitor DC current transformer electronic status.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.05.02
6.04.06.02
Instrumentation Group shall provide output from the MPS interface the data which satisfies MPS design.
01/08/2026
In Process
FALSE

R-HSR-INST-DCCT-ELEC.06.01
6.04.06.02
Reference related controls interface document for Controls interface signal details. (I-HSR-CNTRL-XXX.XX)
01/08/2026
In Process
FALSE

HSR-INST-FBSYS : HSR Instrumentation Global Orbit Feedback System (WBS 6.05.05.03)

HSR-INST-GAPCL : HSR Instrumentation Gap Cleaner (WBS 6.05.05.03)

HSR-INST-HTPU : HSR Instrumentation Head-tail Pick-up (WBS 6.05.05.03)

HSR-INST-LPM : HSR Instrumentation Longitudinal Profile Monitors (WBS 6.05.05.03)

F-HSR-INST-LPM.01
6.02.03
An LPM supporting physics requirements shall be strategically placed in the HSR to monitor the HR longitudinal profile at injection, on the ramp, during bunch splitting and at store with bunch compression.
02/09/2026
Approved
FALSE

F-HSR-INST-LPM.02
6.02.03
An LPM supporting physics requirements shall be strategically placed in the HSR to monitor the longitudinal profile and provide data to the LLRF systems at injection, on the ramp, during bunch splitting and at store with bunch compression.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.01
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be able to accommodate all bunch parameters set forth in the MPT including RF longitudinal gymnastics with a maximum of 2 (GHz).
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.02
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of monitoring satellite bunches in neighboring buckets
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.03
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of measuring bunch profiles for each bunch circulating in the HSR from injection to store.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.04
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of measuring bunch profiles during bunch splitting and bunch compression.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.05
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall measure bunch profile placement in the RF bucket with 50 (ps) resolution.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.06
6.02.03.05.03
The HSR Longitudinal Profile Monitor charge measurement shall not vary more than +/- TBD % per mm of beam offset
02/09/2026
In Process
FALSE

P-HSR-INST-LPM.07
6.02.03.05.03
The HSR Longitudinal Profile Monitor charge measurement shall maintain a thermal drift tolerance of < TBD nC/K
02/09/2026
In Process
FALSE

P-HSR-INST-LPM.08
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be able to measure a single bunch profiles averaged over 1000 turns with resolution of 50 ps
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.09
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be able to measure the integrated charge of a single bunch averaged over 1000 turns with a resolution of 0.5 nC
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.10
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall operate in ultra-high vacuum
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.11
6.02.03.05.03
The impedance of the HSR Longitudinal Profile Monitor shall be approved by beam physics
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.12
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be capable of making bunch charge measurements for each bunch circulating in the HSR for the life of the store
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.13
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of logging bunch profiles over the life of the store
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.14
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of provide mountain range displays of logged profiles
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.15
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be a radiation hardened device.
02/09/2026
Approved
FALSE

HSR-INST-LPM-CM

R-HSR-INST-LPM-CM.01.01
6.05.05.03
Instrumentation Group shall provide design details that defines the location limitations and the mechanical connection for the longitudinal profile monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.01.02
6.05.05.03
The physics group shall indicate the location of the longitudinal profile monitor in the lattice designated by a marker that satisfies the instrumentation groups design limits
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.01.03
6.05.05.03
Vacuum group shall define the installation details for the mechanical connection for longitudinal profile monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.01.04
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to install longitudinal profile monitor by the appropriate technical support group and its subsystems which satisfies the vacuum group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.02.01
6.05.05.03
Instrumentation Group shall provide radiation design limits for the longitudinal profile monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.02.02
6.05.05.03
Physics Group shall provide the expected radiation dose in its installation location and if required the design of the required radiation shielding for the longitudinal profile monitor and its associated subsystems to mitigate exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.02.03
6.05.05.03
Mechanical engineering group shall define the installation details of the required radiation shielding design for the longitudinal profile monitor assembly and its associated subsystems to mitigate exposure which satisfies the Physics Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.02.04
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to install longitudinal profile monitor required radiation shielding design by the appropriate technical support group which satisfies the Vacuum Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.03.01
6.05.05.03
Instrumentation Group shall provide thermal design limits and required thermal regulation design for the longitudinal profile monitor and its associated subsystems exposure
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.03.02
6.05.05.03
Mechanical engineering group shall define the installation details for longitudinal profile monitor thermal regulation design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.03.03
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to install longitudinal profile monitor thermal regulation design by the appropriate technical support group which satisfies the mechanical group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.04.01
6.05.05.03
Instrumentation group shall provide design details that defines the signal cable connection for longitudinal profile monitor assembly and its associated subsystems.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.04.02
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to connect the longitudinal profile monitor required signal cable by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.04.03
6.05.05.03
Reference related longitudinal profile monitor electronics interface document for signal cable routing interface details inside of tunnel. (I-HSR-INST-LPM-ELEC.XX)
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.05.01
6.05.05.03
Instrumentation Group shall provide thermal design parameters for the longitudinal profile monitor assembly and its associated subsystems exposure.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.05.02
6.05.05.03
Vacuum group shall incorporate the defined thermal design limits for the longitudinal profile monitor assembly into its bakeout procedure for the HSR beamline which satisfies the Instrumentation Group design.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.05.03
6.05.05.03
Vacuum group shall define the cleanliness and installation details for the mechanical connection of the longitudinal profile monitor to the beamline.
01/08/2026
Reviewed
FALSE

R-HSR-INST-LPM-CM.05.04
6.05.05.03
ASR System Installation and Final Integration shall provide funding and scheduling to insure cleanliness installation of the longitudinal profile monitor design by the appropriate technical support group which satisfies the vacuum group design.
01/08/2026
Reviewed
FALSE

HSR-INST-LPM-ELEC

R-HSR-INST-LPM-ELEC.01.01
6.04.06.02
Instrumentation Group shall provide design details that defines the building, rack layouts and power utilities for Injection Bunch Charge Monitor electronics and its associated subsystems.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.01.02
6.04.06.02
Infrastructure Group shall provide buildings, detailed drawings including rack layouts for the Injection Bunch Charge Monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.01.03
6.04.06.02
Infrastructure Group shall provide funding and scheduling for the installation of the wall terminated power utilities for distribution to the Injection Bunch Charge Monitor electronics and its subcomponents which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.01.04
6.04.06.02
Infrastructure Group shall provide reliable air conditioning and humidity control in the Injection Bunch Charge Monitor electronic buildings which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.02.01
6.04.06.02
Instrumentation Group shall provide the Injection Bunch Charge Monitor electronic rack and its subsystems design, including the Spacial location, thermal and weight details.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.02.02
6.04.06.02
Instrumentation Group shall provide the plan and funding for the procurement of the racks to house Injection Bunch Charge Monitor electronics and its sub components which satisfies the design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.02.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling to move and install Injection Bunch Charge Monitor electronic racks by the appropriate technical support group and its subsystems which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.02.04
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of Injection Bunch Charge Monitor electronics into the racks by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.03.01
6.04.06.02
Instrumentation Group shall provide the design and funding for the procurement of the AC cable distribution from the wall mount distribution to each Injection Bunch Charge Monitor electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.03.02
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the design and AC cable tray to contain the AC cable distribution from the wall mount distribution to each Injection Bunch Charge Monitor electronic rack.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.03.03
6.04.06.02
ASR System Installation and Final Integration shall provide funding and scheduling for the installation of AC cable and AC cable tray from the wall mount distribution to each Injection Bunch Charge Monitor electronic rack by the appropriate technical support group which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.04.01
6.04.06.02
Instrumentation Group shall provide the design details defining the signal cable routing from the Injection Bunch Charge Monitor electronic and its associated subsystems into the tunnels.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.04.02
6.04.06.02
Infrastructure group shall provide tunnel penetrations for signal cables which satisfies the Instrumentation Group design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.04.03
6.04.06.02
Reference related Injection Bunch Charge Monitor interface document for signal cable termination interface details inside of tunnel. (I-HSR-INST-BPM-PU.XX)
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.05.01
6.04.06.02
Machine Protection System (MPS) Group shall define the design details including input connections and data required to monitor Injection Bunch Charge Monitor electronic status.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.05.02
6.04.06.02
Instrumentation Group shall provide output from the MPS interface the data which satisfies MPS design.
01/08/2026
In Process
FALSE

R-HSR-INST-LPM-ELEC.06.01
6.04.06.02
Reference related controls interface document for Controls interface signal details. (I-HSR-CNTRL-XXX.XX)
01/08/2026
In Process
FALSE

HSR-INST-SLK : HSR Instrumentation Stripline Kicker (WBS 6.05.05.03)

HSR-INST-TPM : HSR Instrumentation Transverse Profile Monitors (WBS 6.05.05.03)

F-HSR-INST-TPM.01
6.02.03
Transverse profiles monitors shall be strategically placed in the HSR warm sections to monitor the horizontal and vertical beam profiles with sufficient precision.
02/09/2026
Approved
FALSE

P-HSR-INST-TPM.01
6.02.03.05.03
The transverse profile monitors shall have the capability to produce profiles of an individual proton bunch over a bunch charge range from 5 to 44 nC.
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.02
6.02.03.05.03
The transverse profile monitors shall have the capability to measure profiles of bunch trains separated by 1/3 of the HSR circumference.
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.03
6.02.03.05.03
The transverse profile monitors shall provide continuous measurements with an intervals at least 30 s
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.04
6.02.03.05.03
The transverse profile monitors shall have the capability to measure turn-by-turn profiles of a single bunch of protons for at least 100 turns
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.05
6.02.03.05.03
For horizontal plane profile measurement from 44nC bunches to 5nC bunches, the transverse profile monitors shall have a respective resolution range of 0.5 to 1.5 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.06
6.02.03.05.03
For vertical plane profile measurement from 44nC bunches to 5nC bunches, the transverse profile monitors shall have a respective resolution range of 0.15 to 0.5 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.07
6.02.03.05.03
The horizontal transverse profile monitor, transverse measurement range shall be +/- 12 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.08
6.02.03.05.03
The vertical transverse profile monitor, transverse measurement range shall be +/- 12 mm
02/09/2026
Reviewed
FALSE

HSR-INST-DAMP : Longitudnal Damping Instrumentation

HSR-INST-DAMP-INJDAMP : HSR Instrumentation Injection Damper (WBS 6.05.05.03)

HSR-INST-DAMP-LBBD : HSR Instrumentation Longitudinal Bunch-by-Bunch Damper (WBS 6.05.05.03)

HSR-INST-DAMP-TBBD : HSR Instrumentation Transverse Bunch-by-Bunch Damper (WBS 6.05.05.03)

HSR-INST-GC : Gap Cleaner Instrumentation

HSR-INST-HFSKOTTY : HF Schottky Instrumentation

HSR-INST-INJDAMP

HSR-INST-LBBD

HSR-INST-LFSKOTTY : LF Schottky Instrumentation

HSR-INST-TBBD

HSR-INST-TM : Tune Monitoring Instrumentation

HSR-INST-TM-TMK : HSR Instrumentation Horizontal and Vertical Tune Meter Kicker (WBS 6.05.05.03)

HSR-INST-TMK

HSR-MPS : HSR Machine Protection System (WBS 6.06.03.01)

HSR-MPS-ABORT_BUMP : HSR Machine Protection System Bump (WBS 6.06.03.01)

HSR-MPS-ABORT_BUMP EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MPS-ABORT_BUMP.01
6.04.04.03.02.02
The location (Section) shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.02
6.04.04.03.02.02
The dimension in W shall be tbd (ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.03
6.04.04.03.02.02
The dimension in L shall be tbd (ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.04
6.04.04.03.02.02
The dimension in H shall be tbd (ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.05
6.04.04.03.02.02
The num magnets shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.06
6.04.04.03.02.02
The mag gap shall be tbd (cm)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.07
6.04.04.03.02.02
The rise time shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.08
6.04.04.03.02.02
The fall time shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.09
6.04.04.03.02.02
The flat top time shall be tbd (sq ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.10
6.04.04.03.02.02
The waveshape shall be tbd (sq ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.11
6.04.04.03.02.02
The flat top repeatability shall be tbd (sec)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.12
6.04.04.03.02.02
The uniformity of the flattop shall be tbd (sec)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.13
6.04.04.03.02.02
The deflecting Angle shall be tbd (sec)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.14
6.04.04.03.02.02
The rep rate spec shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.15
6.04.04.03.02.02
The output voltage Spec shall be tbd (Hz)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.16
6.04.04.03.02.02
The output current spec shall be tbd (Volts)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.17
6.04.04.03.02.02
The inductance with cable shall be tbd (Amps)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.18
6.04.04.03.02.02
The cooling type shall be tbd
02/09/2026
In Process
FALSE

HSR-MPS-ABORT_KICK : HSR Machine Protection System Kicker (WBS 6.06.03.01)

HSR-MPS-ABORT_KICK EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MPS-ABORT_KICK.01
6.04.04.03.02.02
The number of kickers shall be 5
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.02
6.04.04.03.02.02
The Rise time shall be 900 ns
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.03
6.04.04.03.02.02
The Fall time shall be NA sec
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.04
6.04.04.03.02.02
The flat top time shall be 13 us
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.05
6.04.04.03.02.02
The waveshape shall be trap
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.06
6.04.04.03.02.02
The painting shall be horizontal
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.07
6.04.04.03.02.02
The maximum field shall be TBD T
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.08
6.04.04.03.02.02
The total deflection shall be TBD mrad
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.09
6.04.04.03.02.02
The maximum current shall be 20 kA
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.10
6.04.04.03.02.02
The maximum voltage shall be 33.3 kV
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.11
6.04.04.03.02.02
The inductance with cable shall be TBD (uH)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.12
6.04.04.03.02.02
The Max rep rate shall be 1 pulse per minut
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.13
6.04.04.03.02.02
The flat top repeatability shall be +10 / -20 %
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.14
6.04.04.03.02.02
The flatness of flat top/pulse form shall be 0.45 mod
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.15
6.04.04.03.02.02
Beam abort kicker tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.16
6.04.04.03.02.02
The cooling type shall be water
02/09/2026
In Process
FALSE

HSR-MPS-DUMP_BLK : HSR Machine Protection System Dump Block (WBS 6.06.03.01)

HSR-MPS-ABORT

F-HSR-MPS-ABORT.01
6.04.04.03.02.02
The HSR shall contain an beam abort system to dump the beam.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.02
6.04.04.03.02.02
The HSR beam abort system shall consist of a set of kickers and a beam dump
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.03
6.04.04.03.02.02
The HSR beam abort system shall be located in the tunnel between Q3 and Q4 at 9 o'clock side of the IR10 straight section.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.04
6.04.04.03.02.02
The HSR beam abort system shall re-use a RHIC beam dump to safely absorb the energy of the stored beam in a controlled fashion.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.05
6.04.04.03.02.02
The HSR beam abort system shall receive its trigger from the HSR machine protection system.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.06
6.04.04.03.02.02
The HSR beam dump shall be capable of absorbing the entire HSR proton beam (275 GeV, 1160 bunches, 11 nC each, 3.2 MJ stored energy) as well the entire Au ion beam (110 GeV/u, 290 bunches, 25 nC each, 2 MJ stored snergy)) without sustaining permanent damage
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.07
6.04.04.03.02.02
The HSR beam dump shall be capable of absorbing the entire HSR full energy beam (proton or Au ion) every 3 hours.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.08
6.04.04.03.02.02
The HSR beam dump system must ensure reliable protection from quenches, caused by secondary particles, of Q4 SC magnet downstrean of the beam dump.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.09
6.04.04.03.02.02
Radiation shielding shall be provided as part of the HSR beam dump assembly such that the radiation on the outer surface of the beam dump does not exceed TBD after TBD beam aborts at full intensity.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.10
6.04.04.03.02.02
The HSR abort kickers shall be installed downstream of Q3 magnet at 9 o'clock side of the IR10 straight section.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.11
6.04.04.03.02.02
The rise time of the HSR abort kicker system shall not exceed 1 usec.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.12
6.04.04.03.02.02
The HSR abort kicker pulse shall remain at or near its peak value for a duration of at least 13 usec.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.13
6.04.04.03.02.02
The HSR abort kicker pulse amplitude shall be sufficiently large to deflect the beam safely into the beam dump.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.14
6.04.04.03.02.02
The rising edge of the HSR abort kicker pulse shall be synchronized with the abort gap in the HSR bunch train, such that all bunches receive a kick sufficient to deflect them into the beam dump.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.15
6.04.04.03.02.02
The number of HSR abort kicker modules shall be chosen such that the required total detection angle is provided efficiently.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.16
6.04.04.03.02.02
The design of the HSR abort kickers must be consistent with the impedance budget requirements of the HSR.
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.17
6.04.04.03.02.02
The HSR abort kicker power supply scheme shall be desing in a way to eliminate a possibility of kicker module sporadic firing (pre-fire).
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.18
6.04.04.03.02.02
The HSR horizontal half aperture for the circulating beam at the location of the beam dump shall correspond to at least 6 horizontal RMS beam sizes, based on the Au injection emittances defined in the Master Parameter Table (MPT). [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-HSR-MPS-ABORT.19
6.04.04.03.02.02
The HSR vertical half aperture for the circulating beam at the location of the beam dump shall correspond to at least 6 vertical RMS beam sizes, based on the Au injection emittances defined in the Master Parameter Table (MPT). [Document#: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

HSR-MPS-COLLIMATIONL

F-HSR-MPS-COLLIMATIONL.01
6.04.04.03.02.01
A set of collimation systems (horizontal, vertical and momentum) shall be included in the HSR to control detector background and provide protection to the HSR magnets.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.02
6.04.04.03.02.01
The HSR collimation system shall be flexible enough to operate with the full range of HSR species at all energy ranges defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.03
6.04.04.03.02.01
The HSR shall have a collimation system capable of ensuring a sufficiently low background at the detector.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.04
6.04.04.03.02.01
The HSR shall have a collimation system capable of protecting all machine elements in case of failure.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.05
6.04.04.03.02.01
All HSR collimator stations shall be double-sided.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.06
6.04.04.03.02.01
The HSR Collimators shall be placed at accelerator locations suitable for background reduction in all operating energy ranges.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.07
6.04.04.03.02.01
The HSR Collimator jaws shall be independently and remotely movable over a range of 60 (mm).
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.08
6.04.04.03.02.01
The HSR Collimator jaw material shall be chosen such that the collimator jaw can absorb 275 GeV protons and 110 GeV Au ions without sustaining permanent damage.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.09
6.04.04.03.02.01
All HSR collimator stations shall be equipped with appropriate beam loss monitors to protect the collimator jaws from excessive beam losses by aborting the beam via the Machine Protection System (MPS).
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.10
6.04.04.03.02.01
The HSR collimator jaws shall be wide enough to still be effective in the presence of beam orbit errors of 10 (mm).
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.11
6.04.04.03.02.01
The HSR collimation stations shall be designed such as to minimize their beam impedance.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.12
6.04.04.03.02.01
The HSR collimation stations shall be designed for operation in a vacuum system with pressure in 5x10-10 (Torr) or less.
02/09/2026
Approved
FALSE

HSR-MPS-GENERAL

HSR-COLL : HSR Momentum Collimator System (WBS 6.06.03.02)

HSR-COLL-1ST_SECDRY : HSR Momentum First Set of Secondary Collimators (WBS 6.06.03.02)

P-HSR-COLL-1ST_SECDRY.01
6.04.04.03.02.01
The HSR secondary vertical collimator shall be placed at Sector 12
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.02
6.04.04.03.02.01
The HSR secondary horizontal collimator shall be placed at Sector 12
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.03
6.04.04.03.02.01
The vertical aperture shall range from 2 to 25 mm
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.04
6.04.04.03.02.01
vertical stepsize (resolution) 10 um
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.05
6.04.04.03.02.01
The horizontal aperture shall range from 12.5 to 45 mm
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.06
6.04.04.03.02.01
The horizontal stepsize (resolution) shall be 10 um
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.07
6.04.04.03.02.01
The secondary HSR collimators shall have dual jaws.
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.08
6.04.04.03.02.01
The aperture shall be centered on the beam axis.
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.09
6.04.04.03.02.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.10
6.04.04.03.02.01
The tapered jaw slope shall be 1\10
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.11
6.04.04.03.02.01
The jaw tip length shall be 50 cm
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.12
6.04.04.03.02.01
The jaw material shall be C
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.13
6.04.04.03.02.01
The total length shall be tbd cm
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.14
6.04.04.03.02.01
The beam energy deposition shall be tbd W
02/09/2026
In Process
FALSE

P-HSR-COLL-1ST_SECDRY.15
6.04.04.03.02.01
The beam failure energy deposition shall be tbd J
02/09/2026
In Process
FALSE

HSR-COLL-2ND_SECDRY : HSR Momentum Second Set of Secondary Collimators (WBS 6.06.03.02)

P-HSR-COLL-2ND_SECDRY.01
6.04.04.03.02.01
The HSR secondary vertical collimator shall be placed at Sector 11
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.02
6.04.04.03.02.01
The HSR secondary horizontal collimator shall be placed at Sector 11
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.03
6.04.04.03.02.01
The vertical aperture shall range from 4 to 50 mm
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.04
6.04.04.03.02.01
The vertical stepsize (resolution) shall be 10 um
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.05
6.04.04.03.02.01
The horizontal aperture shall range from 8 to 30 mm
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.06
6.04.04.03.02.01
The horizontal stepsize (resolution) shall be 10 um
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.07
6.04.04.03.02.01
The secondary HSR collimators shall have dual jaws.
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.08
6.04.04.03.02.01
The aperture shall be centered on the beam axis.
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.09
6.04.04.03.02.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.10
6.04.04.03.02.01
The tapered jaw slope shall be 1\10
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.11
6.04.04.03.02.01
The jaw tip length shall be 50 cm
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.12
6.04.04.03.02.01
The jaw material shall be C
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.13
6.04.04.03.02.01
The total length shall be tbd cm
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.14
6.04.04.03.02.01
The beam energy deposition shall be tbd W
02/09/2026
In Process
FALSE

P-HSR-COLL-2ND_SECDRY.15
6.04.04.03.02.01
The beam failure energy deposition shall be tbd J
02/09/2026
In Process
FALSE

HSR-COLL-ABS : HSR Momentum Injection Absorbers (WBS 6.06.03.02)

P-HSR-COLL-ABS.01
6.04.04.03.02.01
The HSR Injection absorber shall be placed in Sector 4
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.02
6.04.04.03.02.01
The HSR Injection absorber shall be horizontal
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.03
6.04.04.03.02.01
The horizontal aperture shall be tbd mm
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.04
6.04.04.03.02.01
The horizontal aperture shall be fixed.
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.05
6.04.04.03.02.01
The HSR injection absorber should be one-sided.
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.06
6.04.04.03.02.01
The aperture shall be centered on the beam axis.
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.07
6.04.04.03.02.01
The beam energy deposition shall be intermittent (injection failures)
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.08
6.04.04.03.02.01
The energy deposition from synchrotron radiation shall be negligible.
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.09
6.04.04.03.02.01
The tapered jaw slope shall be 1\10
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.10
6.04.04.03.02.01
The jaw tip length shall be 100 cm
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.11
6.04.04.03.02.01
The jaw material shall be tbd
02/09/2026
In Process
FALSE

P-HSR-COLL-ABS.12
6.04.04.03.02.01
The total length shall be tbd cm
02/09/2026
In Process
FALSE

HSR-COLL-MOM : HSR Momentum Collimator (WBS 6.06.03.02)

P-HSR-COLL-MOM.01
6.04.04.03.02.01
The HSR momentum collimator shall be horizontal.
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.02
6.04.04.03.02.01
The horizontal aperture shall have a half gap of 40 mm
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.03
6.04.04.03.02.01
The horizontal aperture shall cover a range of gap sizes min=TBD to a max=TBD mm
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.04
6.04.04.03.02.01
The horizontal stepsize (resolution) shall be 10 um
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.05
6.04.04.03.02.01
The HSR momentum collimator shall have dual jaws.
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.06
6.04.04.03.02.01
The aperture shall be centered on the beam axis.
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.07
6.04.04.03.02.01
The beam energy deposition shall be tbd W
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.08
6.04.04.03.02.01
The beam energy deposition shall be continuous
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.09
6.04.04.03.02.01
The impedance shall be less than the Impedance budget of tbd kV/pc
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.10
6.04.04.03.02.01
The tapered jaw slope shall be tbd
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.11
6.04.04.03.02.01
The beam failure energy deposition shall be 1 J
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.12
6.04.04.03.02.01
The failure thermal duty cycle shall be intermittent.
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.13
6.04.04.03.02.01
The jaw tip length shall be 100 cm
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.14
6.04.04.03.02.01
The jaw taper shall be 1\10
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.15
6.04.04.03.02.01
The jaw material shall be tbd
02/09/2026
In Process
FALSE

P-HSR-COLL-MOM.16
6.04.04.03.02.01
The total length shall be tbd cm
02/09/2026
In Process
FALSE

HSR-COLL-PRIM : HSR Momentum Primary Collimators (WBS 6.06.03.02)

P-HSR-COLL-PRIM.01
6.04.04.03.02.01
The HSR primary vertical collimator shall be placed at Sector 12
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.02
6.04.04.03.02.01
The HSR primary horizontal collimator shall be placed at Sector 12
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.03
6.04.04.03.02.01
The vertical aperture shall range from 0.9 to 20 mm
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.04
6.04.04.03.02.01
The vertical stepsize (resolution) shall be 10 um
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.05
6.04.04.03.02.01
The horizontal aperture shall range from 7 to 28 mm
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.06
6.04.04.03.02.01
The horizontal stepsize (resolution) shall be 10 um
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.07
6.04.04.03.02.01
The aperture shall be centered on the beam axis.
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.08
6.04.04.03.02.01
The duty cycle shall be steady state.
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.09
6.04.04.03.02.01
The energy deposition from synchrotron radiation shall be negligible.
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.10
6.04.04.03.02.01
The tapered jaw slope shall be 1\10
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.11
6.04.04.03.02.01
The jaw tip length shall be 50 cm
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.12
6.04.04.03.02.01
The jaw material shall be CU
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.13
6.04.04.03.02.01
The total length shall be tbd cm
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.14
6.04.04.03.02.01
The beam energy deposition shall be tbd W
02/09/2026
In Process
FALSE

P-HSR-COLL-PRIM.15
6.04.04.03.02.01
The beam failure energy deposition shall be tbd J
02/09/2026
In Process
FALSE

HSR-CONT : HSR Controls System (WBS 6.07.02)

HSR-CONT-FEEDBACK : HSR Controls System Feedback (WBS 6.07.02)

HSR-CONT-SPIN : HSR Controls System Spin Pattern (WBS 6.07.02)

HSR-RF : HSR RF System (WBS 6.08)

F-HSR-RF.01
6.02.03
The HSR Ring Normal Conducting RF system shall include an, h=315 system capable of capture and acceleration of all beams defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.02
6.02.03
The HSR Ring Normal Conducting RF system shall include an h=630 system to perform the 1:2 bunch splitting required to produce store bunch patterns defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.03
6.02.03
The HSR Ring Normal Conducting RF system shall include an h=1260 system to perform the 2:4 bunch splitting required to produce store bunch patterns defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.04
6.02.03
The HSR Ring Normal Conducting RF system shall include an h=2520 system to perform initial bunch length compression to achieve the required store bunch lengths defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.05
6.02.03
The HSR Ring Super Conducting RF system final bunch length compression to achieve MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.06
6.02.03
Normal conducting HSR Ring RF systems shall be located in the IR 4 straight section
02/09/2026
Approved
FALSE

F-HSR-RF.07
6.02.03
Superconducting HSR Ring RF systems shall be located in the IR 10 straight section.
02/09/2026
Approved
FALSE

F-HSR-RF.08
6.02.03
The Longitudinal Impedance Budget sum of all the longitudinal narrowband impedances from all the HSR Ring RF and Crab RF systems shall not exceed a level which compromises the machine parameters given in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.09
6.02.03
The transverse Impedance Budget sum of all the transverse narrowband impedances of all HSR Ring RF and Crab RF systems shall not exceed a level which compromises the machine parameters given in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.10
6.02.03
The HSR Ring RF system shall provide controls and diagnostics for all cavities and system functionality.
02/09/2026
Approved
FALSE

HSR-RF-CCAV:197 : HSR Main RF Capture & Accel Mode (WBS 6.08.05.04)

P-HSR-RF-CCAV:197.01.01
6.08.04.04
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.01
6.08.04.04
The cavity helium bath maximum designed operational temperature shall be 2 K.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.02
6.08.04.04
The cavity helium bath maximum designed operational pressure shall be 30 mbar.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.02.03
6.08.04.04
The cavity helium bath designed operation pressure stability shall be ± 0.1 mbar.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.02.05
6.08.04.04
The maximum design helium supply operational temperature shall be 5.5 K.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.06
6.08.04.04
The range of the design helium supply operational pressure shall be 3 to 3.5 bar.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.07
6.08.04.04
The range of the combined helium return temperature shall be 64 to 66 K.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.08
6.08.04.04
The range of the combined helium return pressure shall be 2.4 to 2.6 bar.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.09
6.08.04.04
The maximum sub-atmospheric helium return temperature shall be 4.5 K.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.10
6.08.04.04
The maximum Subatmospheric helium return pressure shall be 30 mbar.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.11
6.08.04.04
The minimum cooldown rate of the SRF cavity between 300K and 4.5K shall be 20 K/hour.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.12
6.08.04.04
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.13
6.08.04.04
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 4 days.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.14
6.08.04.04
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.02.15
6.08.04.04
The SRF Cryomodule shall achieve a full warm-up cycle from 4K to 295K in a maximum of 2 days.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.03.01
6.08.04.04
The SRF Cryomodule cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.01
6.08.04.04
The SRF Cryomodule shall operate through a minimum of 100 thermal cycles.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.02
6.08.04.04
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.03
6.08.04.04
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.04
6.08.04.04
The manufactured SRF Cryomodule Cavity shall produce no field emission at 8.5 MV.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.04.05
6.08.04.04
The SRF Cryomodule components that are not replaceable in-situ shall be designed with a radiation tolerance greater than 1 MGy.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.06
6.08.04.04
The SRF Cryomodule components that are replaceable in-situ shall have a radiation tolerance greater than 1 kGy.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.07
6.08.04.04
The active SRF cavity tuning mechanism components (bearings/motor) shall be replaceable and maintainable in-situ.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.08
6.08.04.04
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.04.09
6.08.04.04
The SRF Cryomodule instrument should have maximized instruments that can be maintained and replaced in-situ.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.01
6.08.04.04
The SRF maximum (per cavity) RF longitudinal impedance shall be 0.26 MΩ GHz.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.02
6.08.04.04
The SRF maximum (per cavity) RF horizontal impedance shall be 0.132 MΩ/m.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.03
6.08.04.04
The SRF maximum (per cavity) RF vertical impedance shall be 0.66 MΩ/m.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.04
6.08.04.04
The minimum cavity aperture radius shall be 50 mm.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.05
6.08.04.04
The maximum broadband RF power emitted from the cryomodule shall be 100 W for all EIC design energies and currents.
10/30/2025
In Process
FALSE

P-HSR-RF-CCAV:197.05.06
6.08.04.04
The SRF Cryomodule shall be designed to operate with a beam current up to 1.0 A.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.07
6.08.04.04
The Maximum Quadrupole multipole content per side at 33.8 MV shall be 8 mT.
10/30/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.08
6.08.04.04
The Maximum Sextupole multipole content per side at 33.8 MV shall be 160 mT/m.
10/30/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.09
6.08.04.04
The Maximum Octupole multipole content per side at 33.8 MV shall be 7.6 T/m^2.
10/30/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.10
6.08.04.04
The Maximum Decapole multipole content per side at 33.8 MV shall be 410 T/m^3.
10/30/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.05.12
6.08.04.04
The separation between the two cavities poles at the apex of the curve shall be 105.3 +/- 0.5 mm.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.06.01
6.08.04.04
The SRF cavity minimum manufactured quality factor (Qo) shall be 6e9.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.06.02
6.08.04.04
The SRF cavity minimum manufactured voltage shall be 8.5 MV.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.06.03
6.08.04.04
The SRF cavity fundamental power coupler Qext shall be (1.75 +/- 0.1)e6.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.06.04
6.08.04.04
The SRF cavity field probe Qext range shall be (2.70 to 3.24)e10.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.06.05
6.08.04.04
The SRF cavity nominal cold frequency shall be 197.0508 MHz.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.06.06
6.08.04.04
The SRF maximum Lorentz force detuning shall be 5 Hz/(Mv/m)^2.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.06.07
6.08.04.04
The SRF cavity maximum Niobium temperature shall be 4.5 K.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.06.08
6.08.04.04
The SRF Pressure sensitivity maximum shall be 10 Hz/mBar.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.06.09
6.08.04.04
The SRF Cryomodule shall be designed to handle a minimum forward power of 60 kW.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.07.01
6.08.04.04
The warm beamline maximum vacuum shall be 1.0e-7 mbar.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.07.02
6.08.04.04
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.07.03
6.08.04.04
The beamline vacuum maximum leak rate shall be 1.0e-11 mbar L/s.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.07.04
6.08.04.04
The warm insulating maximum vacuum shall be 1.0e-5 mbar.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.07.05
6.08.04.04
The cold insulating maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.07.06
6.08.04.04
The insulating vacuum maximum leak rate shall be 1.0e-9 mbar L/s.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.08.01
6.08.04.04
The minimum SRF Cavity Slow Tuner tuning range shall be -170 to +101 kHz.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.08.02
6.08.04.04
The minimum SRF Cavity Slow Tuner tuning rate shall be 800 Hz/s.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:197.08.03
6.08.04.04
The maximum SRF Cavity Slow Tuner resolution shall be ± 5 Hz.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.08.04
6.08.04.04
The maximum SRF Cavity Slow Tuner hysteresis shall be ± 1 Hz.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.09.01
6.08.04.04
All cryomodule surfaces accessible to workers shall be within the temperature range of 283 to 333 K
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.02
6.08.04.04
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME B31.3.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.03
6.08.04.04
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME BPVC.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.04
6.08.04.04
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASTM C1055.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.05
6.08.04.04
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.06
6.08.04.04
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70E.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.07
6.08.04.04
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.08
6.08.04.04
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.09
6.08.04.04
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.09.10
6.08.04.04
The SRF Cryomodule shall be designed to meet all applicable standards as directed by the DOE Vacuum Vessel Consensus Standards.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.10.01
6.08.04.04
The SRF Cryomodule maximum length shall be 5.21 m.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.10.02
6.08.04.04
The SRF Cryomodule maximum width shall be 1.37 m.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.10.03
6.08.04.04
The SRF Cryomodule maximum height shall be 2.67 m.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.04
6.08.04.04
The maximum distance from the beamline to the extremity of the FPC warm side elbow shall be TBD m.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.05
6.08.04.04
The maximum width of the FPC warm side elbow shall be TBD m.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.06
6.08.04.04
The distance from the beamline to the tunnel floor shall be 1.27 m.
08/28/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.10.07
6.08.04.04
The Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.08
6.08.04.04
The Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.09
6.08.04.04
The Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.10
6.08.04.04
The Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 2.0 degrees.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.11
6.08.04.04
The Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 1.0 degrees.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.12
6.08.04.04
The Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.03 degrees.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.10.13
6.08.04.04
The SRF Cryomodule cryogenic valve box minimum vertical stay clear height above the cryomodule shall be 0.92m.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:197.11.01
6.08.04.04
Conditioning for individual cavities shall have a maximum average cryogenic power dissipation of 200 W.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:197.11.02
6.08.04.04
Conditioning for individual cavities shall be achieved with a maximum temperature of 2.1 K.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.12.01
6.08.04.04
The SRF Cryomodule shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.12.02
6.08.04.04
The SRF Cryomodule shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.12.03
6.08.04.04
The SRF Cryomodule shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.12.04
6.08.04.04
The SRF Cryomodule shall be designed to withstand a minimum tilt around the beamline axis (roll) of ± 0.26 radians.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:197.13.01
6.08.04.04
The SRF Cryomodule maximum design ambient magnetic field amplitude shall be 700 mG.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:197.13.02
6.08.04.04
The minimum magnetic shield attenuation factor at SRF cavity equator shall be 50.
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.13.03
6.08.04.04
The maximum thermal radiative heat transfer to all 2K and 5K surfaces shall be 2 W/m^2.
06/05/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.13.04
6.08.04.04
The maximum thermal radiative heat transfer to all 50K surfaces shall be 2 W/m^2.
05/16/2025
Reviewed
FALSE

P-HSR-RF-CCAV:197.14.01
6.08.04.04
The SRF Cryomodule shall be designed to meet or exceed the maximum working pressures defined by the EIC pressure document (Document No. TBD).
08/28/2025
In Process
FALSE

P-HSR-RF-CCAV:197.15.01
6.08.04.04
The SRF Cryomodule HOM Damper maximum broadband power shall be 5 kW.
08/28/2025
Reviewed
FALSE

HSR-RF-CCAV:394 : HSR Main RF Split1 Mode (WBS 6.08.05.05)

P-HSR-RF-CCAV:394.01
6.08.04.05
The SRF CM shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.02
6.08.04.05
The cavity helium bath maximum operational temperature shall be TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.03
6.08.04.05
The cavity helium bath maximum operational pressure shall be TBD mbar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.04
6.08.04.05
The cavity helium bath operation pressure stability shall be ±TBD mbar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.05
6.08.04.05
The maximum helium supply operational temperature shall be TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.06
6.08.04.05
nan
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.07
6.08.04.05
The range of the combined helium return temperature shall be TBD to TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.08
6.08.04.05
The range of the combined helium return pressure shall be TBD to TBD bar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.09
6.08.04.05
The maximum sub-atmospheric helium return temperature shall be TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.10
6.08.04.05
The maximum Subatmospheric helium return pressure shall be TBD mbar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.11
6.08.04.05
The minimum cooldown rate of the SRF cavity between 300K and 4.5K shall be TBD K/hour
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.12
6.08.04.05
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be TBD K/hour
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.13
6.08.04.05
The SRF CM shall achieve steady state temperature with the cavity bath at 4K in a maximum of TBD days
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.14
6.08.04.05
The chilled water and low-conductivity water operational temperature range shall be TBD to TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.15
6.08.04.05
The chilled water and low-conductivity water operational pressure range shall be TBD to TBD bar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.16
6.08.04.05
The minimum magnetic shield attenuation factor at SRF cavity equator shall be TBD
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.17
6.08.04.05
The SRF CM shall operate through a minimum of TBD thermal cycles
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.18
6.08.04.05
The minimum SRF Cavity Slow tuner minimum lifetime shall be TBD years
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.19
6.08.04.05
The minimum SRF CM Slow Tuner 1% range tuning cycles shall be TBD cycles
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.20
6.08.04.05
The minimum SRF CM Slow Tuner full range tuning cycles shall be TBD cycles
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.21
6.08.04.05
The manufactured SRF CM Cavity shall produce no field emission at TBD MV
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.22
6.08.04.05
The SRF CM components that are not replaceable in-situ shall be designed with a radiation tolerance greater than TBD MGy
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.23
6.08.04.05
The SRF CM components that are replaceable in-situ shall have a radiation tolerance greater than TBD kGy
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.24
6.08.04.05
The active SRF cavity tuning mechanism components (bearings/motor/piezo) shall be replaceable and maintainable in-situ.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.25
6.08.04.05
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.26
6.08.04.05
The SRF CM instrument should have maximized instruments that can be maintained and replaced in-situ
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.27
6.08.04.05
The SRF maximum (per cavity) RF longitudinal impedance shall be TBD MΩ GHz
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.28
6.08.04.05
The SRF maximum (per cavity) RF horizontal impedance shall be TBD MΩ/m
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.29
6.08.04.05
nan
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.30
6.08.04.05
The minimum cavity aperture radius shall be TBD mm
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.31
6.08.04.05
The maximum broadband RF power emitted from the CM shall be TBD kW
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.32
6.08.04.05
The Maximum Quadrupole multipole content shall be TBD mT
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.33
6.08.04.05
The Maximum Sextupole multipole content shall be TBD mT/m
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.34
6.08.04.05
The Maximum Octupole multipole content shall be TBD T/m^2
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.35
6.08.04.05
The Maximum Decapole multipole content shall be TBD T/m^3
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.36
6.08.04.05
The SRF cavity minimum manufactured quality factor (Qo) shall be TBD
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.37
6.08.04.05
The SRF cavity minimum manufactured voltage shall be TBD MV
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.38
6.08.04.05
The SRF cavity fundamental power coupler Qext shall be TBD
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.39
6.08.04.05
The SRF cavity field probe Qext range shall be TBD
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.40
6.08.04.05
The SRF cavity nominal cold frequency shall be TBD MHz
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.41
6.08.04.05
The SRF cavity maximum Niobium temperature shall be TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.42
6.08.04.05
The SRF Pressure sensitivity maximum shall be TBD Hz/mBar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.43
6.08.04.05
The SRF maximum Lorentz force detuning shall be TBD Hz/(Mv/m)^2
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.44
6.08.04.05
The warm beamline maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.45
6.08.04.05
The cold beamline maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.46
6.08.04.05
The beamline vacuum maximum leak rate shall be TBD mbar L/s
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.47
6.08.04.05
The warm insulating maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.48
6.08.04.05
The cold insulating maximum vacuum shall be TBD mbar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.49
6.08.04.05
The insulating vacuum maximum leak rate shall be TBD mbar L/s
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.50
6.08.04.05
The minimum SRF Cavity Slow Tuner tuning range shall be shall be -TBD, +TBD kHz
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.51
6.08.04.05
The minimum SRF Cavity slow tuner tuning rate shall be TBD Hz/s
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.52
6.08.04.05
The maximum SRF Cavity Slow Tuner resolution shall be TBD Hz
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.53
6.08.04.05
The maximum SRF Cavity Slow Tuner hysteresis shall be ±TBD Hz
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.54
6.08.04.05
The external warm maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.55
6.08.04.05
The external cold maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.56
6.08.04.05
The internal maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.57
6.08.04.05
All cryomodule surfaces accessible to workers shall be within the temperature range of TBD to TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.58
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASME B31.3
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.59
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASME BPVC
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.60
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASTM C1055
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.61
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by NFPA 70
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.62
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.63
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by NFPA 70E
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.64
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.65
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.66
6.08.04.05
The SRF CM maximum length shall be TBD m
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.67
6.08.04.05
The SRF CM maximum width shall be TBD m
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.68
6.08.04.05
The SRF CM maximum height shall be TBD m
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.69
6.08.04.05
nan
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.70
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ±TBD μm
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.71
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ±TBD μm
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.72
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ±TBD mm
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.73
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ±TBD degrees
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.74
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ±TBD degrees
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.75
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ±TBD degrees
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.76
6.08.04.05
Conditioning for individual cavities shall have a maximum average cryogenic power dissipation of TBD W
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.77
6.08.04.05
Conditioning for individual cavities shall be achieved with a maximum temperature of TBD K
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.78
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable vertical acceleration of TBD G
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.79
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable lateral acceleration of TBD G
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.80
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable beamline axis acceleration of TBD G
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.81
6.08.04.05
The SRF Cryomodule shall be designed to withstand a minimum tilt around the beamline axis (roll) of ±0.26 radians.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.82
6.08.04.05
The SRF Cryomodule loaded quality factor shall be TBD ± TBD.
05/16/2025
In Process
FALSE

P-HSR-RF-CCAV:394.83
6.08.04.05
The SRF Cryomodule FPC external quality factor balance shall be TBD.
05/16/2025
In Process
FALSE

HSR-RF-ACAV:197 : HSR RF Systems NCRF 197 MHz Cavity

P-HSR-RF-ACAV:197.01
6.08.05.07
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.02.01
6.08.05.07
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.02.02
6.08.05.07
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.01
6.08.05.07
The minimum NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.02
6.08.05.07
The minimum NCRF Cavity System Slow Tuner full range tuning cycles shall be shall be 120,000 cycles.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.03
6.08.05.07
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.04
6.08.05.07
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.05
6.08.05.07
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.06
6.08.05.07
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.07
6.08.05.07
The NCRF Cavity System shall maximize the number of instrumentats that can be maintained and replaced in-situ.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.03.08
6.08.05.07
The NCRF Cavity System components shall be ergonomically accessible.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.04.01
6.08.05.07
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.04.02
6.08.05.07
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.04.03
6.08.05.07
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.04.04
6.08.05.07
The NCRF Cavity System minimum cavity aperture radius shall be 75 mm.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.04.05
6.08.05.07
The NCRF Cavity System maximum broadband RF power emitted from the cavity via the beampipe shall be 1 kW.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.01
6.08.05.07
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 43,000.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.02
6.08.05.07
The sum of all NCRF Cavity System minimum manufactured gradients shall be 6 MV.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.03
6.08.05.07
The NCRF Cavity System field probe Qext range shall be (1.7 ± 0.4)e8.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.04
6.08.05.07
The NCRF Cavity System nominal frequency shall be 197.051 MHz.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.05
6.08.05.07
The NCRF Cavity System FPC external quality factor shall be (4.8 ± 0.2)e4.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.06
6.08.05.07
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 60 kW Continuous Wave.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.07
6.08.05.07
The NCRF Cavity System loop HOM Damper maximum total broadband power on each shall be 5 kW.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.08
6.08.05.07
The NCRF Cavity System e-probe HOM Damper maximum total broadband power on each shall be 0.1 kW.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.05.09
6.08.05.07
The NCRF Cavity System loop HOM Damper maximum fundamental power leakage under nominal frequency and voltage shall be 200 W.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.06.01
6.08.05.07
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
08/15/2025
In Process
FALSE

P-HSR-RF-ACAV:197.06.02
6.08.05.07
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
08/15/2025
In Process
FALSE

P-HSR-RF-ACAV:197.07.01
6.08.05.07
The NCRF Cavity System Slow Tuner tuning range shall be -120 to +120 KHz.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.07.02
6.08.05.07
The minimum NCRF Cavity System slow tuner resolution shall be ± 10 Hz.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.07.03
6.08.05.07
The minimum NCRF Cavity System slow tuner tuning rate shall be 1,600 Hz/s.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.07.04
6.08.05.07
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 100 Hz.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.08.01
6.08.05.07
The NCRF Cavity System maximum Qext of the Fundamental Mode Damper shall be 500 when the FMD is fully inserted.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:197.08.02
6.08.05.07
The NCRF Cavity System Fundamental Mode Damper shall handle a minimum power of 20 W.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.08.03
6.08.05.07
The NCRF Cavity System Fundamental Mode Damper maximum insertion time, from the externally tangential to cavity inner surface position to the fully inserted position, shall be 1 second.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:197.08.04
6.08.05.07
The NCRF Cavity System Fundamental Mode Damper maximum retraction time, from the fully inserted position to the externally tangential to cavity inner surface position, shall be 0. 7 seconds
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.01
6.08.05.07
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.02
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.03
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.04
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.05
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.06
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.07
6.08.05.07
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.08
6.08.05.07
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.09.09
6.08.05.07
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.01
6.08.05.07
The NCRF Cavity System full assembly maximum length shall be 0.9 m.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.02
6.08.05.07
The NCRF Cavity System full assembly maximum width shall be 1.9 m.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.03
6.08.05.07
The NCRF Cavity System full assembly maximum height (including tetrode amplifier) shall be 3.0 m.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.04
6.08.05.07
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270 ± 15 mm.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.05
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.06
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.07
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.08
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.09
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.10.10
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.11.01
6.08.05.07
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.11.02
6.08.05.07
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
08/15/2025
Approved
FALSE

P-HSR-RF-ACAV:197.11.03
6.08.05.07
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
08/15/2025
Approved
FALSE

HSR-RF-ACAV:24 : HSR RF System NCRF 24.6 MHz Cavity

P-HSR-RF-ACAV:24.01
6.08.05.04
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.02.01
6.08.05.04
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.02.02
6.08.05.04
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.01
6.08.05.04
The minimum lifetime NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.02
6.08.05.04
The minimum lifetime NCRF Cavity System Slow Tuner full range tuning cycles shall be 120,000 cycles.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.03
6.08.05.04
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
07/02/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.04
6.08.05.04
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
07/02/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.05
6.08.05.04
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
07/02/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.06
6.08.05.04
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
07/02/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.07
6.08.05.04
The NCRF Cavity System shall maximize the number of instruments that can be maintained and replaced in-situ.
07/02/2025
Approved
FALSE

P-HSR-RF-ACAV:24.03.08
6.08.05.04
The NCRF Cavity System components shall be ergonomically accessible.
07/02/2025
Approved
FALSE

P-HSR-RF-ACAV:24.04.01
6.08.05.04
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.04.02
6.08.05.04
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.04.03
6.08.05.04
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.04.04
6.08.05.04
The NCRF Cavity System minimum cavity aperture radius shall be 75 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.04.05
6.08.05.04
The NCRF Cavity System maximum broadband RF power emitted from the cavity via both beampipe ports shall be 1 kW.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.01
6.08.05.04
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 12,500.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.02
6.08.05.04
The sum of all NCRF Cavity System minimum accelerating voltages shall be 0.6 MV.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.03
6.08.05.04
The NCRF Cavity System field probe external quality factor (Qext) range shall be (2.7 ± 0.5)e7.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.04
6.08.05.04
The NCRF Cavity System nominal frequency shall be 24.631 MHz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.05
6.08.05.04
The NCRF Cavity System FPC external quality factor shall be (7.1 ± 0.3)e3.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.06
6.08.05.04
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 60 kW continuous wave.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.07
6.08.05.04
The maximum total broadbad power on each NCRF Cavity System loop HOM Damper shall be 5 kW.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.08
6.08.05.04
The maximum total broadband power on each NCRF Cavity System e-probe HOM Damper shall be 0.1 kW.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.05.09
6.08.05.04
The maximum fundamental power leakage under nominal frequency and voltage of the NCRF Cavity System loop HOM Damper shall be 200 W.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.06.01
6.08.05.04
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:24.06.02
6.08.05.04
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:24.07.01
6.08.05.04
The NCRF Cavity System Slow Tuner tuning range shall be -160 to +40 KHz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.07.02
6.08.05.04
The minimum NCRF Cavity System slow tuner resolution shall be ± 500 Hz.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.07.03
6.08.05.04
The minimum NCRF Cavity System slow tuner tuning rate shall be 1,600 Hz/s.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.07.04
6.08.05.04
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 2,500 Hz.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.07.05
6.08.05.04
The minimum NCRF Cavity System Fast Tuner tuning range shall be 20 kHz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.07.06
6.08.05.04
The minimum NCRF Cavity System Fast Tuner resolution shall be ± 10 Hz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.07.07
6.08.05.04
The minimum NCRF Cavity System Fast tuning rate shall be 10 MHz/s.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.07.08
6.08.05.04
The maximum NCRF Cavity System Fast Tuner hysteresis shall be ± 100 Hz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.01
6.08.05.04
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.02
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.03
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.04
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.05
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.06
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.07
6.08.05.04
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.08
6.08.05.04
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.08.09
6.08.05.04
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
07/22/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.01
6.08.05.04
The NCRF Cavity System full assembly maximum length shall be 3.0 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.02
6.08.05.04
The NCRF Cavity System full assembly maximum width shall be 1.8 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.03
6.08.05.04
The NCRF Cavity System full assembly maximum height (including tetrode amplifier) shall be 2.3 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.04
6.08.05.04
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270.0 ± 15 mm.
08/29/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.05
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.06
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.07
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.08
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.09
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.09.10
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.10.01
6.08.05.04
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.10.02
6.08.05.04
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:24.10.03
6.08.05.04
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
05/16/2025
Approved
FALSE

HSR-RF-ACAV:49 : HSR RF Systems NCRF 49.2 MHz Cavity

P-HSR-RF-ACAV:49.01
6.08.05.05
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.02.01
6.08.05.05
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.02.02
6.08.05.05
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.01
6.08.05.05
The minimum NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.02
6.08.05.05
The minimum NCRF Cavity System Slow Tuner full range tuning cycles shall be shall be 120,000 cycles.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.03
6.08.05.05
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.04
6.08.05.05
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.05
6.08.05.05
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.06
6.08.05.05
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.07
6.08.05.05
The NCRF Cavity System shall maximize the number of instrumentats that can be maintained and replaced in-situ.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.03.08
6.08.05.05
The NCRF Cavity System components shall be ergonomically accessible.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.04.01
6.08.05.05
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.04.02
6.08.05.05
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.04.03
6.08.05.05
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.04.04
6.08.05.05
The NCRF Cavity System minimum cavity aperture radius shall be 75 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.04.05
6.08.05.05
The NCRF Cavity System maximum broadband RF power emitted from the cavity via the beampipe shall be 1 kW.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.01
6.08.05.05
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 10,000.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.02
6.08.05.05
The sum of all NCRF Cavity System minimum manufactured gradients shall be 0.5 MV.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.03
6.08.05.05
The NCRF Cavity System field probe Qext range shall be (5.3 ± 1.0)e7.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.04
6.08.05.05
The NCRF Cavity System nominal frequency shall be 49.263 MHz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.05
6.08.05.05
The NCRF Cavity System FPC external quality factor shall be (4.6 ± 0.2)e3.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.06
6.08.05.05
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 120 kW Continuous Wave.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.07
6.08.05.05
The NCRF Cavity System loop HOM Damper maximum total broadband power on each shall be 5 kW.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.08
6.08.05.05
The NCRF Cavity System e-probe HOM Damper maximum total broadband power on each shall be 0.5 kW.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.05.09
6.08.05.05
The NCRF Cavity System loop HOM Damper maximum fundamental power leakage under nominal frequency and voltage shall be 200 W.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.06.01
6.08.05.05
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:49.06.02
6.08.05.05
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:49.07.01
6.08.05.05
The NCRF Cavity System Slow Tuner tuning range shall be -280 to +40 KHz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.07.02
6.08.05.05
The minimum NCRF Cavity System slow tuner resolution shall be ± 500 Hz.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.07.03
6.08.05.05
The minimum NCRF Cavity System slow tuner tuning rate shall be 1600 Hz/s.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.07.04
6.08.05.05
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 2500 Hz.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.08.01
6.08.05.05
The NCRF Cavity System maximum Qext of the Fundamental Mode Damper shall be 250 when the FMD is fully inserted.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.08.02
6.08.05.05
The NCRF Cavity System Fundamental Mode Damper shall handle a minimum power of 5 kW.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.08.03
6.08.05.05
The NCRF Cavity System Fundamental Mode Damper maximum insertion time, from the externally tangential to cavity inner surface position to the fully inserted position, shall be 1 second.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.08.04
6.08.05.05
he NCRF Cavity System Fundamental Mode Damper maximum retraction time, from the fully inserted position to the externally tangential to cavity inner surface position, shall be 0.2 seconds
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.01
6.08.05.05
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.02
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.03
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.04
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.05
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.06
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.07
6.08.05.05
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.08
6.08.05.05
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.09.09
6.08.05.05
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
07/22/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.01
6.08.05.05
The NCRF Cavity System full assembly maximum length shall be 1.5 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.02
6.08.05.05
The NCRF Cavity System full assembly maximum width shall be 1.9 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.03
6.08.05.05
The NCRF Cavity System full assembly maximum height shall be 1.9 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.04
6.08.05.05
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270 ± 15 mm.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.05
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.06
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.07
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.08
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.09
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.10.10
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.11.01
6.08.05.05
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.11.02
6.08.05.05
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:49.11.03
6.08.05.05
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
05/16/2025
Approved
FALSE

R-HSR-RF-ACAV:49.01.01
6.08.05
Infrastructure shall provide supply and return headers within the tunnel for Low Conductivity Water (LCW) to be utilized by NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.01.02
6.08.05
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) to be utilized by NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.01.03
6.08.05
RF Pre-Installation shall provide all distribution design, materials, and installation of the piping (or hoses) for Low Conductivity Water (LCW) from the tunnel header to the systems to be utilized by NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.01.04
6.08.05
NCRF systems shall provide Low Conductivity Water (LCW) supply/return receptacles at the systems to facilitate installation by RF Pre-Installation.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.02.01
6.08.05
NCRF systems shall provide instrument air receptacles to be utilized by TBD.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.02.02
6.08.05
TBD shall provide an instrument air supply system for the required NCRF systems components in the tunnel.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.02.03
6.08.05
TBD shall provide all routing design, installation, and control logic to the instrument air receptacles on the NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.03.01
6.08.05
NCRF systems shall provide Beamline All Metal Gate Valve receptacles and controllers to be utilized by HSR Vacuum System.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.03.02
6.08.05
NCRF systems shall provide Beamline Ion pump receptacles and controllers to be utilized by HSR Vacuum System.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.03.03
6.08.05
NCRF systems shall provide Vacuum pressure receptacles and controllers to be utilized by HSR Vacuum System.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.03.04
6.08.05
TBD shall provide all cabling, routing design, installation, and control logic to the NCRF cavity vacuum control receptacles at the NCRF cavity to be utilized by NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.04.01
6.08.05
NCRF systems shall provide a RF signal pickup port to be utilized by RF Controls.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.04.02
6.08.05
NCRF systems shall provide temperature sensor with wires to the applicable building(s) to be utilized by RF Controls.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.04.03
6.08.05
NCRF systems shall provide tuner motor with wires to the applicable building(s) to be utilized by RF Controls.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.04.04
6.08.05
RF Controls shall provide all cabling, routing design, and control logic to the NCRF cavity control instrumentation at the cavity to be utilized by NCRF systems.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.01
6.08.05
High Power RF shall design and provide a coaxial line to be utilized by NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.02
6.08.05
NCRF systems shall provide a receptacle for the High Power RF coaxial line to be utilized by High Power RF.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.03
6.08.05
Accelerator Installation shall provide the schedule and funding for the coaxial line installation to the NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.04
6.08.05
High Power RF shall provide DC Bias to be utilized by the NCRF Systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.05
6.08.05
NCRF Systems shall provide a receptable on the NCRF systems for the DC Bias connection to be used by High Power RF.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.06
6.08.05
High Power RF shall provide all design, fabrication, and controls of the DC Bias system to be utilized by NCRF Systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.07
6.08.05
NCRF systems shall provide water flow instrumentation with wires to the applicable building(s) to be utilized by TBD for fault detection.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.08
6.08.05
NCRF systems shall provide air flow instrumentation with wires to the applicable building(s) to be utilize by TBD.
10/08/2025
In Process
FALSE

R-HSR-RF-ACAV:49.05.09
6.08.05
HPRF shall provide all cabling, routing design, and installation to the NCRF cavity monitor receptacles at the cavity to be utilized by NCRF systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.07.01
6.08.05
NCRF Systems shall provide fiducialization points on the NCRF cavities relating back to the electromagnetic center of the beamline to be utilized by Accelerator Installation.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.07.02
6.08.05
RF Pre-Installation shall arrange the installation location/area to be utilized by NCRF Systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.07.03
6.08.05
Accelerator Installation shall provide the schedule and funding for the NCRF systems installation and app technician support (lag bolts/rough alignment/pedestal/etc.).
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.07.04
6.08.05
The Mechanical Design Group shall model the tunnel to define the required spatial locations to be utilized by NCRF Systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.08.01
6.08.05
NCRF Systems shall provide a receptacle for the beamline connection on both ends of the NCRF cavities to be utilized by HSR Vacuum Systems.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.08.02
6.08.05
HSR Vacuum System shall provide installation labor of the NCRF systems to the beamline.
09/04/2025
In Process
FALSE

R-HSR-RF-ACAV:49.08.03
6.08.05
TBD shall ensure that during installation the NCRF systems cleanliness does not degrade.
09/04/2025
In Process
FALSE

HSR-RF-ACAV:591S

P-HSR-RF-ACAV:591S.01
6.08.04.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.02
6.08.04.01
The cavity helium bath maximum operational temperature shall be 2 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.03
6.08.04.01
The cavity helium bath maximum operational pressure shall be 30 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.04
6.08.04.01
The cavity helium bath operation pressure stability shall be ±0.1 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.05
6.08.04.01
The maximum helium supply operational temperature shall be 5.5 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.06
6.08.04.01
The range of the helium supply operational pressure shall be 3 to 3.5 bar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.07
6.08.04.01
The range of the combined helium return temperature shall be 64 to 66 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.08
6.08.04.01
The range of the combined helium return pressure shall be 2.4 to 2.6 bar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.09
6.08.04.01
The maximum sub-atmospheric helium return temperature shall be 4.5 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.10
6.08.04.01
The maximum Subatmospheric helium return pressure shall be 30 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.11
6.08.04.01
The minimum cooldown rate of the SRF cavity between 300K to 150K shall be 10 K/hour.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.12
6.08.04.01
The minimum cooldown rate of the SRF cavity between 150K to 50K shall be 30 K/hour.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.13
6.08.04.01
The minimum cooldown rate of the SRF cavity between 50K to 4.5K shall be 10 K/hour.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.14
6.08.04.01
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.15
6.08.04.01
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.16
6.08.04.01
The maximum thermal radiative heat transfer to all 2K and 5K surfaces shall be 2 W/cm^2.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.17
6.08.04.01
The maximum thermal radiative heat transfer to all 50K surfaces shall be 2 W/m^2.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.18
6.08.04.01
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 2 days.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.19
6.08.04.01
The chilled water and low-conductivity water operational temperature range shall be 295 to 315 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.20
6.08.04.01
The chilled water and low-conductivity water operational pressure range shall be 7.5 to 8.5 bar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.21
6.08.04.01
The minimum magnetic shield attenuation factor at SRF cavity equator shall be 50 .
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.22
6.08.04.01
The SRF cryomodule maximum design ambient magnetic field amplitude shall be 700 mG.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.23
6.08.04.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.24
6.08.04.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100000 cycles.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.25
6.08.04.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1000 cycles
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.26
6.08.04.01
The manufactured SRF Cryomodule Cavity shall produce no field emission at 4 MV
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.27
6.08.04.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1000 kGy
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.28
6.08.04.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.29
6.08.04.01
The active SRF cavity tuning mechanism components (bearings/motor/piezo) shall be replaceable and maintainable in-situ.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.30
6.08.04.01
The SRF Cavity Fast Tuner shall have a minimum lifetime of 1 year between maintenance cycles .
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.31
6.08.04.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.32
6.08.04.01
The total SRF maximum RF longitudinal impedance (accelerator definition) shall be 52 MΩ Ghz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.33
6.08.04.01
The total SRF maximum RF horizontal impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.34
6.08.04.01
The total SRF maximum RF vertical impedance (accelerator definition) shall be 24 MΩ/m.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.35
6.08.04.01
The minimum cavity aperture radius shall be 30 mm.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.36
6.08.04.01
The maximum broadband RF power emitted from the cryomodule shall be 30 kW for all EIC design energies and currents.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.37
6.08.04.01
The SRF Cryomodule shall be designed to operate with a beam current up to 2.5 A.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.38
6.08.04.01
The Maximum Dipole content shall be 50 mT-m.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.39
6.08.04.01
The Maximum Quadrupole content shall be 4 mT.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.40
6.08.04.01
The Maximum Sextuple content shall be 2 T/m.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.41
6.08.04.01
The Maximum Octupole content shall be 50 mT/m^2.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.42
6.08.04.01
The SRF cavity minimum manufactured quality factor (Qo) shall be 1.5E10.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.43
6.08.04.01
The SRF cavity minimum manufactured gradient shall be 4 MV.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.44
6.08.04.01
The SRF cavity field probe Qext range shall be 1.00E11 to 2.00E11.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.45
6.08.04.01
The SRF cavity nominal cold frequency shall be 591.149 MHz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.46
6.08.04.01
The SRF pressure sensitivity maximum shall be 10 Hz/mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.47
6.08.04.01
The SRF maximum lorentz force detuning shall be 5 Hz/(MV/m)^2.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.48
6.08.04.01
The SRF cavity maximum Niobium temperature shall be 5 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.49
6.08.04.01
The warm beamline maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.50
6.08.04.01
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.51
6.08.04.01
The beamline vacuum maximum leak rate shall be 5e-10 mbar L/s.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.52
6.08.04.01
The warm insulating maximum vacuum shall be 1.0e-5 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.53
6.08.04.01
The cold insulating maximum vacuum shall be 5.0e-7 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.54
6.08.04.01
The insulating vacuum maximum leak rate shall be 1.0e-8 mbar L/s.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.55
6.08.04.01
The The minimum SRF Cavity Slow Tuner tuning range shall be shall be 600 KHz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.56
6.08.04.01
The minimum SRF Cavity slow tuner tuning rate shall be 800 Hz/s.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.57
6.08.04.01
The maximum SRF Cavity Slow Tuner resolution shall be ±1 Hz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.58
6.08.04.01
The maximum SRF Cavity Slow Tuner hysteresis shall be ±10 Hz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.59
6.08.04.01
The minimum SRF Cavity Fast Tuner tuning range shall be 400 Hz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.60
6.08.04.01
The minimum SRF Cavity Fast Tuner resolution shall be ±1 Hz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.61
6.08.04.01
The minimum SRF Cavity Fast Tuner tuning rate shall be 10000 Hz/s.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.62
6.08.04.01
The maximum SRF Cavity Fast Tuner hysteresis shall be ±1 Hz.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.63
6.08.04.01
The external warm maximum allowable working pressure of the SRF cavity shall not exceed 2.2 bar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.64
6.08.04.01
The external cold maximum allowable working pressure of the SRF cavity shall not exceed 5.2 bar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.65
6.08.04.01
The internal maximum allowable working pressure of the SRF cavity shall not exceed 1.8 bar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.66
6.08.04.01
All cryomodule surfaces accessible to workers shall be within the temperature range of 283 to 333 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.67
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.68
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.69
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.70
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.71
6.08.04.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.72
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.73
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.74
6.08.04.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.75
6.08.04.01
The SRF Cryomodule shall be designed to meet all applicable standards as directed by the DOE Vacuum Vessel Consensus Standards .
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.76
6.08.04.01
The SRF Cryomodule maximum length shall be 7.2 m.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.77
6.08.04.01
The SRF Cryomodule maximum width shall be 2.15 m.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.78
6.08.04.01
The SRF Cryomodule maximum height shall be 1.7 m.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.79
6.08.04.01
The distance from the beamline to the tunnel floor shall be 1381.09 ± 20 mm.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.80
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ±250 μm.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.81
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ±250 μm.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.82
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ±5 mm.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.83
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ±0.04 radians.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.84
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ±0.01 radians.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.85
6.08.04.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ±0.01 radians.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.86
6.08.04.01
Conditioning for individual cavities shall have a maximum average cryogenic power dissipation of 200 W.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.87
6.08.04.01
Conditioning for individual cavities shall be achieved with a maximum temperature of 2.1 K.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.88
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable vertical acceleration of ±4 G.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.89
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable lateral acceleration of ±1.5 G.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.90
6.08.04.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable beamline axis acceleration of ±5 G.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.91
6.08.04.01
The SRF Cryomodule shall be designed to withstand a tilt around the beamline axis (roll) up to ±1.4 radians.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.92
6.08.04.01
The SRF Cryomodule cavity loaded quality factor shall be 2.9e5 ± TBD.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:591S.93
6.08.04.01
The SRF Cryomodule FPC external quality factor balance shall be TBD.
05/16/2025
In Process
FALSE

HSR-RF-ACAV:98 : HSR RF Systems NCRF 98.4 MHz Cavity

P-HSR-RF-ACAV:98.01
6.08.05.06
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.02.01
6.08.05.06
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.02.02
6.08.05.06
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.01
6.08.05.06
The minimum NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.02
6.08.05.06
The minimum NCRF Cavity System Slow Tuner full range tuning cycles shall be shall be 120,000 cycles.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.03
6.08.05.06
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.04
6.08.05.06
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.05
6.08.05.06
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.06
6.08.05.06
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.07
6.08.05.06
The NCRF Cavity System shall maximize the number of instrumentats that can be maintained and replaced in-situ.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.03.08
6.08.05.06
The NCRF Cavity System components shall be ergonomically accessible.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.04.01
6.08.05.06
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.04.02
6.08.05.06
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.04.03
6.08.05.06
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.04.04
6.08.05.06
The NCRF Cavity System minimum cavity aperture radius shall be 37.5 mm.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.04.05
6.08.05.06
The NCRF Cavity System maximum broadband RF power emitted from the cavity via the beampipe shall be 1 kW.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.01
6.08.05.06
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 7,650.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.02
6.08.05.06
The sum of all NCRF Cavity System minimum manufactured gradients shall be 0.6 MV.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.03
6.08.05.06
The NCRF Cavity System field probe Qext range shall be (5.4 ± 1.0)e7.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.04
6.08.05.06
The NCRF Cavity System nominal frequency shall be 98.525 MHz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.05
6.08.05.06
The NCRF Cavity System FPC external quality factor shall be (3.9 ± 0.2)e3.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.06
6.08.05.06
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 120 kW Continuous Wave.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.07
6.08.05.06
The NCRF Cavity System loop HOM Damper maximum total broadband power on each shall be 5 kW.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.08
6.08.05.06
The NCRF Cavity System e-probe HOM Damper maximum total broadband power on each shall be 0.5 kW.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.05.09
6.08.05.06
The NCRF Cavity System loop HOM Damper maximum fundamental power leakage under nominal frequency and voltage shall be 200 W.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.06.01
6.08.05.06
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:98.06.02
6.08.05.06
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
05/16/2025
In Process
FALSE

P-HSR-RF-ACAV:98.07.01
6.08.05.06
The NCRF Cavity System Slow Tuner tuning range shall be -120 to +120 KHz.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.07.02
6.08.05.06
The minimum NCRF Cavity System slow tuner resolution shall be ± 500 Hz.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.07.03
6.08.05.06
The minimum NCRF Cavity System slow tuner tuning rate shall be 1600 Hz/s.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.07.04
6.08.05.06
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 2500 Hz.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.08.01
6.08.05.06
The NCRF Cavity System maximum Qext of the Fundamental Mode Damper shall be 150 when the FMD is fully inserted.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.08.02
6.08.05.06
The NCRF Cavity System Fundamental Mode Damper shall handle a minimum power of 5 kW.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.08.03
6.08.05.06
he NCRF Cavity System Fundamental Mode Damper maximum insertion time, from the externally tangential to cavity inner surface position to the fully inserted position, shall be 1 second.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.08.04
6.08.05.06
he NCRF Cavity System Fundamental Mode Damper maximum retraction time, from the fully inserted position to the externally tangential to cavity inner surface position, shall be 0.2 seconds.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.01
6.08.05.06
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.02
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.03
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.04
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.05
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.06
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.07
6.08.05.06
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.08
6.08.05.06
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.09.09
6.08.05.06
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
07/22/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.01
6.08.05.06
The NCRF Cavity System full assembly maximum length shall be 0.9 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.02
6.08.05.06
The NCRF Cavity System full assembly maximum width shall be 1.5 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.03
6.08.05.06
The NCRF Cavity System full assembly maximum height shall be 1.3 m.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.04
6.08.05.06
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270 ± 15 mm.
11/12/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.05
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.06
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.07
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.08
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.09
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.10.10
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.11.01
6.08.05.06
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.11.02
6.08.05.06
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
05/16/2025
Approved
FALSE

P-HSR-RF-ACAV:98.11.03
6.08.05.06
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
05/16/2025
Approved
FALSE

HSR-RF-NCRF

HSR-RF-NCRF-ACAV:197

R-HSR-RF-NCRF-ACAV:197.01.01
6.02.03.09.04
Infrastructure shall provide supply and return headers within the tunnel for Chilled Water (CW) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.02
6.02.03.09.04
Infrastructure shall provide Chilled Water (CW) to/from the common supply/return header(s) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.03
6.02.03.09.04
NCRF systems shall provide Chilled Water (CW) supply/return receptacles on the HSR 197 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.04
6.02.03.09.04
NCRF systems shall provide water flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.05
6.02.03.09.04
Mechanical group shall provide all distribution design and bill of materials for the piping (or hoses) for the Chilled Water (CW) from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.06
6.02.03.09.04
Mechanical group shall provide all materials for the piping (or hoses) for Chilled Water (CW) from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.07
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and water flow instrumentation for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.08
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund a leak check to verify the installation of the piping (or hoses) for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.01.09
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF water flow instrumentation for Chilled Water (CW) by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.01
6.02.03.09.04
Infrastructure shall provide supply header within the tunnel for compressed instrument air to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.02
6.02.03.09.04
NCRF systems shall provide compressed instrument air receptacles on the HSR 197 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.03
6.02.03.09.04
NCRF systems shall provide air flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.04
6.02.03.09.04
Infustructure mechanical compressed air shall provide all distribution design and bill of materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.05
6.02.03.09.04
Infustructure mechanical compressed air shall provide all materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.06
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and air flow instrumentation for compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group..
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.07
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund the leak check to verify the installation of the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.02.08
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF air flow instrumentation for the compressed instrument air by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.03.01
6.02.03.09.04
NCRF systems shall provide Beamline All Metal Gate Valve flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.03.02
6.02.03.09.04
NCRF systems shall provide a vacuum pump flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.03.03
6.02.03.09.04
Reference related Vacuum interface document for gate valve, vacuum pump, pressure gauge, bakeout equipment interface details and bakeout process in compliance with NCRF thermal limits. (I-HSR-VAC.XXX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.04.01
6.02.03.09.04
NCRF systems shall provide a RF signal pickup port to be utilized by RF Controls.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.04.02
6.02.03.09.04
NCRF systems shall provide temperature sensor to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.04.03
6.02.03.09.04
NCRF systems shall provide tuner to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.04.04
6.02.03.09.04
NCRF systems shall provide receptacle for ARC detector on the FPC window.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.04.05
6.02.03.09.04
Reference related RF Controls interface document for temperature, tuner motor and ARC detector controls interface details and the installation inside of tunnel. (I-RF-CTRL-NCRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.05.01
6.02.03.09.04
High Power RF shall design and provide a coaxial line to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.05.02
6.02.03.09.04
NCRF systems shall provide a receptacle for the High Power RF coaxial line to be utilized by High Power RF.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.05.03
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund the installation of the coaxial line installation to the NCRF systems by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.05.04
6.02.03.09.04
Reference related interface document for controls interface details inside of tunnel. (I-RF-CTRL-VAC.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.05.05
6.02.03.09.04
Reference related interface document for HPRF interface details inside of tunnel. (I-HPRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.06.01
6.02.03.09.04
NCRF systems shall provide design details of the cavity and the location limitations for the cavities and its associated subsystems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.06.02
6.02.03.09.04
The physics group shall indicate the location of the NCRF cavities in the lattice designated by a marker that satisfies the NCRF design limits.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.06.03
6.02.03.09.04
The Mechanical group shall model the tunnel to define the required spatial locations to be utilized by NCRF Cavities.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.07.01
6.02.03.09.04
HSR Vacuum System shall provide design details for the beamline connecting to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.07.02
6.02.03.09.04
NCRF Systems shall provide a receptacle for the beamline connection on both ends of the NCRF cavities which satisfies the HSR Vacuum Systems design.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.07.03
6.02.03.09.04
NCRF Systems shall provide cleanliness and installation details for the mechanical connection of the NCRF cavity to the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.07.04
6.02.03.09.04
NCRF Systems shall provide feudalization points on the NCRF cavities relating back to the electromagnetic center of the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:197.07.05
6.02.03.09.04
ASR System Installation and Final Integration shall schedule and fund the installation of the NCRF cavity and support (lag bolts/rough alignment/pedestal/etc.) by the appropriate technical group which satisfies the cleanliness design.
01/08/2026
In Process
FALSE

HSR-RF-NCRF-ACAV:24

R-HSR-RF-NCRF-ACAV:24.01.01
6.02.03.09.01
Infrastructure shall provide supply and return headers within the tunnel for Chilled Water (CW) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.02
6.02.03.09.01
Infrastructure shall provide Chilled Water (CW) to/from the common supply/return header(s) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.03
6.02.03.09.01
NCRF systems shall provide Chilled Water (CW) supply/return receptacles on the HSR 24.6 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.04
6.02.03.09.01
NCRF systems shall provide water flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.05
6.02.03.09.01
Mechanical group shall provide all distribution design and bill of materials for the piping (or hoses) for the Chilled Water (CW) from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.06
6.02.03.09.01
Mechanical group shall provide all materials for the piping (or hoses) for Chilled Water (CW) from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.07
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and water flow instrumentation for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.08
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund a leak check to verify the installation of the piping (or hoses) for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.01.09
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF water flow instrumentation for Chilled Water (CW) by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.01
6.02.03.09.01
Infrastructure shall provide supply header within the tunnel for compressed instrument air to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.02
6.02.03.09.01
NCRF systems shall provide compressed instrument air receptacles on the HSR 24.6 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.03
6.02.03.09.01
NCRF systems shall provide air flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.04
6.02.03.09.01
Infustructure mechanical compressed air group shall provide all distribution design and bill of materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.05
6.02.03.09.01
Infustructure mechanical compressed air shall provide all materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.06
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and air flow instrumentation for compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group..
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.07
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund the leak check to verify the installation of the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.02.08
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF air flow instrumentation for the compressed instrument air by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.03.01
6.02.03.09.01
NCRF systems shall provide Beamline All Metal Gate Valve flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.03.02
6.02.03.09.01
NCRF systems shall provide a vacuum pump flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.03.03
6.02.03.09.01
Reference related Vacuum interface document for gate valve, vacuum pump, pressure gauge, bakeout equipment interface details and bakeout process in compliance with NCRF thermal limits. (I-HSR-VAC.XXX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.04.01
6.02.03.09.01
NCRF systems shall provide a RF signal pickup port to be utilized by RF Controls.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.04.02
6.02.03.09.01
NCRF systems shall provide temperature sensor to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.04.03
6.02.03.09.01
NCRF systems shall provide tuner to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.04.04
6.02.03.09.01
NCRF systems shall provide receptacle for ARC detector on the FPC window.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.04.05
6.02.03.09.01
Reference related RF Controls interface document for temperature, tuner motor and ARC detector controls interface details and the installation inside of tunnel. (I-RF-CTRL-NCRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.05.01
6.02.03.09.01
High Power RF shall design and provide a coaxial line to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.05.02
6.02.03.09.01
NCRF systems shall provide a receptacle for the High Power RF coaxial line to be utilized by High Power RF.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.05.03
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund the installation of the coaxial line installation to the NCRF systems by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.05.04
6.02.03.09.01
Reference related interface document for controls interface details inside of tunnel. (I-RF-CTRL-VAC.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.05.05
6.02.03.09.01
Reference related interface document for HPRF interface details inside of tunnel. (I-HPRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.06.01
6.02.03.09.01
NCRF systems shall provide design details of the cavity and the location limitations for the cavities and its associated subsystems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.06.02
6.02.03.09.01
The physics group shall indicate the location of the NCRF cavities in the lattice designated by a marker that satisfies the NCRF design limits.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.06.03
6.02.03.09.01
The Mechanical group shall model the tunnel to define the required spatial locations to be utilized by NCRF Cavities.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.07.01
6.02.03.09.01
HSR Vacuum System shall provide design details for the beamline connecting to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.07.02
6.02.03.09.01
NCRF Systems shall provide a receptacle for the beamline connection on both ends of the NCRF cavities which satisfies the HSR Vacuum Systems design.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.07.03
6.02.03.09.01
NCRF Systems shall provide cleanliness and installation details for the mechanical connection of the NCRF cavity to the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.07.04
6.02.03.09.01
NCRF Systems shall provide feudalization points on the NCRF cavities relating back to the electromagnetic center of the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:24.07.05
6.02.03.09.01
ASR System Installation and Final Integration shall schedule and fund the installation of the NCRF cavity and support (lag bolts/rough alignment/pedestal/etc.) by the appropriate technical group which satisfies the cleanliness design.
01/08/2026
In Process
FALSE

HSR-RF-NCRF-ACAV:49

R-HSR-RF-NCRF-ACAV:49.01.01
6.02.03.09.02
Infrastructure shall provide supply and return headers within the tunnel for Chilled Water (CW) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.02
6.02.03.09.02
Infrastructure shall provide Chilled Water (CW) to/from the common supply/return header(s) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.03
6.02.03.09.02
NCRF systems shall provide Chilled Water (CW) supply/return receptacles on the HSR 49.2 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.04
6.02.03.09.02
NCRF systems shall provide water flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.05
6.02.03.09.02
Mechanical group shall provide all distribution design and bill of materials for the piping (or hoses) for the Chilled Water (CW) from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.06
6.02.03.09.02
Mechanical group shall provide all materials for the piping (or hoses) for Chilled Water (CW) from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.07
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and water flow instrumentation for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.08
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund a leak check to verify the installation of the piping (or hoses) for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.01.09
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF water flow instrumentation for Chilled Water (CW) by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.01
6.02.03.09.02
Infustructure mechanical compressed air shall provide supply header within the tunnel for compressed instrument air to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.02
6.02.03.09.02
NCRF systems shall provide compressed instrument air receptacles on the HSR 49.2 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.03
6.02.03.09.02
NCRF systems shall provide air flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.04
6.02.03.09.02
Infustructure mechanical compressed air group shall provide all distribution design and bill of materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.05
6.02.03.09.02
Infustructure mechanical compressed air shall provide all materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.06
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and air flow instrumentation for compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group..
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.07
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund the leak check to verify the installation of the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.02.08
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF air flow instrumentation for the compressed instrument air by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.03.01
6.02.03.09.02
NCRF systems shall provide Beamline All Metal Gate Valve flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.03.02
6.02.03.09.02
NCRF systems shall provide a vacuum pump flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.03.03
6.02.03.09.02
Reference related Vacuum interface document for gate valve, vacuum pump, pressure gauge, bakeout equipment interface details and bakeout process in compliance with NCRF thermal limits. (I-HSR-VAC.XXX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.04.01
6.02.03.09.02
NCRF systems shall provide a RF signal pickup port to be utilized by RF Controls.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.04.02
6.02.03.09.02
NCRF systems shall provide temperature sensor to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.04.03
6.02.03.09.02
NCRF systems shall provide tuner to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.04.04
6.02.03.09.02
NCRF systems shall provide receptacle for ARC detector on the FPC window.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.04.05
6.02.03.09.02
Reference related RF Controls interface document for temperature, tuner motor and ARC detector controls interface details and the installation inside of tunnel. (I-RF-CTRL-NCRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.05.01
6.02.03.09.02
High Power RF shall design and provide a coaxial line to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.05.02
6.02.03.09.02
NCRF systems shall provide a receptacle for the High Power RF coaxial line to be utilized by High Power RF.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.05.03
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund the installation of the coaxial line installation to the NCRF systems by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.05.04
6.02.03.09.02
Reference related interface document for controls interface details inside of tunnel. (I-RF-CTRL-VAC.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.05.05
6.02.03.09.02
Reference related interface document for HPRF interface details inside of tunnel. (I-HPRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.06.01
6.02.03.09.02
NCRF systems shall provide design details of the cavity and the location limitations for the cavities and its associated subsystems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.06.02
6.02.03.09.02
The physics group shall indicate the location of the NCRF cavities in the lattice designated by a marker that satisfies the NCRF design limits.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.06.03
6.02.03.09.02
The Mechanical group shall model the tunnel to define the required spatial locations to be utilized by NCRF Cavities.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.07.01
6.02.03.09.02
HSR Vacuum System shall provide design details for the beamline connecting to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.07.02
6.02.03.09.02
NCRF Systems shall provide a receptacle for the beamline connection on both ends of the NCRF cavities which satisfies the HSR Vacuum Systems design.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.07.03
6.02.03.09.02
NCRF Systems shall provide cleanliness and installation details for the mechanical connection of the NCRF cavity to the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.07.04
6.02.03.09.02
NCRF Systems shall provide feudalization points on the NCRF cavities relating back to the electromagnetic center of the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:49.07.05
6.02.03.09.02
ASR System Installation and Final Integration shall schedule and fund the installation of the NCRF cavity and support (lag bolts/rough alignment/pedestal/etc.) by the appropriate technical group which satisfies the cleanliness design.
01/08/2026
In Process
FALSE

HSR-RF-NCRF-ACAV:98

R-HSR-RF-NCRF-ACAV:98.01.01
6.02.03.09.03
Infrastructure shall provide supply and return headers within the tunnel for Chilled Water (CW) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.02
6.02.03.09.03
Infrastructure shall provide Chilled Water (CW) to/from the common supply/return header(s) to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.03
6.02.03.09.03
NCRF systems shall provide Chilled Water (CW) supply/return receptacles on the HSR 98 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.04
6.02.03.09.03
NCRF systems shall provide water flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.05
6.02.03.09.03
Mechanical group shall provide all distribution design and bill of materials for the piping (or hoses) for the Chilled Water (CW) from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.06
6.02.03.09.03
Mechanical group shall provide all materials for the piping (or hoses) for Chilled Water (CW) from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.07
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and water flow instrumentation for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.08
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund a leak check to verify the installation of the piping (or hoses) for Chilled Water (CW) from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.01.09
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF water flow instrumentation for Chilled Water (CW) by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.01
6.02.03.09.03
Infrastructure shall provide supply header within the tunnel for compressed instrument air to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.02
6.02.03.09.03
NCRF systems shall provide compressed instrument air receptacles on the HSR 98 MHz cavity to facilitate installation.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.03
6.02.03.09.03
NCRF systems shall provide air flow instrumentation with wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.04
6.02.03.09.03
Infustructure mechanical compressed air group shall provide all distribution design and bill of materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.05
6.02.03.09.03
Infustructure mechanical compressed air shall provide all materials for the piping (or hoses) for the compressed instrument air from the tunnel header to the systems to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.06
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund the installation of the piping (or hoses) and air flow instrumentation for compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group..
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.07
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund the leak check to verify the installation of the piping (or hoses) for the compressed instrument air from the tunnel header to the NCRF cavity by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.02.08
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund a electrical check to verify the installation of the NCRF air flow instrumentation for the compressed instrument air by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.03.01
6.02.03.09.03
NCRF systems shall provide Beamline All Metal Gate Valve flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.03.02
6.02.03.09.03
NCRF systems shall provide a vacuum pump flange to be utilized by HSR Vacuum System.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.03.03
6.02.03.09.03
Reference related Vacuum interface document for gate valve, vacuum pump, pressure gauge, bakeout equipment interface details and bakeout process in compliance with NCRF thermal limits. (I-HSR-VAC.XXX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.04.01
6.02.03.09.03
NCRF systems shall provide a RF signal pickup port to be utilized by RF Controls.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.04.02
6.02.03.09.03
NCRF systems shall provide temperature sensor to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.04.03
6.02.03.09.03
NCRF systems shall provide tuner to be utilized by RF Controls and wire which satisfies the LLRF cable schematic bill of material to the applicable building(s).
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.04.04
6.02.03.09.03
NCRF systems shall provide receptacle for ARC detector on the FPC window.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.04.05
6.02.03.09.03
Reference related RF Controls interface document for temperature, tuner motor and ARC detector controls interface details and the installation inside of tunnel. (I-RF-CTRL-NCRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.05.01
6.02.03.09.03
High Power RF shall design and provide a coaxial line to be utilized by NCRF systems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.05.02
6.02.03.09.03
NCRF systems shall provide a receptacle for the High Power RF coaxial line to be utilized by High Power RF.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.05.03
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund the installation of the coaxial line installation to the NCRF systems by the appropriate technical group.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.05.04
6.02.03.09.03
Reference related interface document for controls interface details inside of tunnel. (I-RF-CTRL-VAC.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.05.05
6.02.03.09.03
Reference related interface document for HPRF interface details inside of tunnel. (I-HPRF.XX)
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.06.01
6.02.03.09.03
NCRF systems shall provide design details of the cavity and the location limitations for the cavities and its associated subsystems.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.06.02
6.02.03.09.03
The physics group shall indicate the location of the NCRF cavities in the lattice designated by a marker that satisfies the NCRF design limits.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.06.03
6.02.03.09.03
The Mechanical group shall model the tunnel to define the required spatial locations to be utilized by NCRF Cavities.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.07.01
6.02.03.09.03
HSR Vacuum System shall provide design details for the beamline connecting to the NCRF cavity.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.07.02
6.02.03.09.03
NCRF Systems shall provide a receptacle for the beamline connection on both ends of the NCRF cavities which satisfies the HSR Vacuum Systems design.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.07.03
6.02.03.09.03
NCRF Systems shall provide cleanliness and installation details for the mechanical connection of the NCRF cavity to the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.07.04
6.02.03.09.03
NCRF Systems shall provide feudalization points on the NCRF cavities relating back to the electromagnetic center of the beamline.
01/08/2026
In Process
FALSE

R-HSR-RF-NCRF-ACAV:98.07.05
6.02.03.09.03
ASR System Installation and Final Integration shall schedule and fund the installation of the NCRF cavity and support (lag bolts/rough alignment/pedestal/etc.) by the appropriate technical group which satisfies the cleanliness design.
01/08/2026
In Process
FALSE

HSR-ARC

HSR-CRYO

HSR-MP : Machine Protection

HSR-MP-ABORT

HSR-SCMR

HSR-SCMR-SNAKE

P-HSR-SCMR-SNAKE.01
6.02.03.10.03
The Hadron Storage Ring (HSR) shall have Six Siberian Snakes replicate the internal structure of the existing RHIC Siberian snake design:
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.01
6.02.03.10.03
The HSR shall have one upgraded Siberian snake transferred over from the RHIC Blue ring (bi9-snk7) and placed between Q7 and Q8 at 11 o’clock area of high energy arc.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.02
6.02.03.10.03
The HSR shall have one upgraded Siberian snake from the RHIC Yellow ring (Yi3-snk7) and placed between Q7 and Q8 at 3 o’clock area of high energy arc.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.03
6.02.03.10.03
The HSR shall have one upgraded Siberian snake transferred over from the RHIC Blue ring (bo3-snk7) and placed between Q8 and Q7 in sector 1 of the 2 o’clock area.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.04
6.02.03.10.03
The HSR shall have one upgraded Siberian snake transferred over from the RHIC Blue ring (Yo9-snk7) and placed between Q7 and Q8 at 9 o’clock area of high energy arc.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.05
6.02.03.10.03
The HSR shall have one additional new Siberian snake constructed by reconfiguring 4RH helical magnet storage units from spin rotators removed from the RHIC Blue Ring placed between sector 5 with its axis parallel to the snake in sector 11.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.06
6.02.03.10.03
The HSR shall have one additional new Siberian snake constructed by reconfiguring 4 LH helical magnet storage units from spin rotators removed from the RHIC Blue Ring between Q7 and Q8 in sector 7 of the 8 o’clock area.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.02
6.02.03.10.03
Warm Heaters shall be installed in the new snakes which meet the existing requirements for snake magnets.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.03
6.02.03.10.03
The HSR Siberian snake design mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- XXX (um).
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.04
6.02.03.10.03
The HSR Siberian snake design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.05
6.02.03.10.03
(Check on Vacuum requirements to make sure aperture is captured.)
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.06
6.02.03.10.03
The HSR Siberian snake shall be designed to accommodate a maximum bake-out temperature of 250 (C) except where the high temperature will damage sensitive components.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.07
6.02.03.10.03
The HSR Siberian snake design shall conform to the EIC Code of Records.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.08
6.02.03.10.03
The HSR Siberian snake shall be designed to be cooled and sustained at its operational temperature utilizing the M,R,U,S,H Lines connecting to existing HSR cryogenic interconnect.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.09
6.02.03.10.03
The HSR Siberian snake shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the constraints identified in the following HSR magnet requirements: P-HSR-MAG-SNAKE.06.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.10
6.02.03.10.03
The HSR Siberian snake shall be designed to have two relief plates for the insulating vacuum vessel, which meets the existing snake magnet design.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.11
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a cryogenic bypass pipe for the ACBS which meets the constraints identified in the following HSR vacuum cryomodule requirements: P-HSR-VAC-CRYOMOD.02, P-HSR-VAC-CRYOMOD.03, P-HSR-VAC-CRYOMOD.07, P-HSR-VAC-CRYOMOD.08 and P-HSR-VAC-CRYOMOD.09.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.12
6.02.03.10.03
The HSR Siberian snake shall be designed to provide an mount for the cryogenic bypass pipe for the ACBS in the insulating vacuum.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.13
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize the magnet assembly applicable which meets the constraints identified in the HSR magnet requirements. (REF. P-HSR-MAG-SNAKE.01 to P-HSR-MAG-SNAKE.10)
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.14
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize an copper coated and amorphous carbon coated (Cu/aC) beam pipe which meets the constraints identified in the following HSR vacuum requirements: P-HSR-VAC.01, P-HSR-VAC.02, P-HSR-ARC-VAC.01, P-HSR-ARC-VAC.02 and P-HSR-ARC-VAC.03, P-HSR-VAC-SNAKE.XX-XX
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.15
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a tapered beampipe transition at its interconnects.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.16
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a Beam Position Monitor (BPM) pickup which meets the constraints identified in the following HSR BPM requirements P-HSR-INST-BPM-PU.01, P-HSR-INST-BPM-PU.02.03, P-HSR-INST-BPM-PU.03.03, P-HSR-INST-BPM-PU.04, P-HSR-INST-BPM-PU.05, P-HSR-INST-BPM-PU.06, P-HSR-INST-BPM-PU.07.02, P-HSR-INST-BPM-PU.04, and P-HSR-INST-BPM-PU.08 to P-HSR-INST-BPM-PU.13.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.17
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a Cu/aC coated beam position monitor pickup.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.18
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize the existing feedthrough turret for the Beam Position Monitor (BPM) cryogenic cables which meets the constraints identified in the HSR BPM cryogenic cable requirements. (REF. P-HSR-INST-BPM-CRYO_CABLES.01 to P-HSR-INST-BPM-CRYO_CABLES.05)
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.19
6.02.03.10.03
The HSR Siberian snake feedthrough turret shall be designed to utilize a SiO2 beam position monitor cables
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.20
6.02.03.10.03
The HSR Siberian snake feedthrough turret shall be designed to utilize a heatshield and heat strap for the beam position monitor cables
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.21
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a feedthrough turret for the power supply cables which meets the constraints identified in the HSR power supply requirements. (REF. P-HSR-PS-SNAKE.01 to P-HSR-PS-SNAKE.20)
02/09/2026
Reviewed
FALSE

HSR-SCMR-SPINROTATOR

P-HSR-SCMR-SPINROTATOR.01
6.02.03.10.04
The Hadron Storage Ring (HSR) shall have Two(2) spin rotators replicate the internal structure of the existing RHIC spin rotator design:
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.01.01
6.02.03.10.04
TBD
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.01.02
6.02.03.10.04
TBD
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.02
6.02.03.10.04
Warm Heaters shall be installed in the new spin rotator which meet the existing requirements for spin rotator magnets.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.03
6.02.03.10.04
The HSR spin rotator design mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- XXX (um).
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.04
6.02.03.10.04
The HSR spin rotator design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.05
6.02.03.10.04
(Check on Vacuum requirements to make sure aperture is captured.)
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.06
6.02.03.10.04
The HSR spin rotator shall be designed to accommodate a maximum bake-out temperature of 250 (C) except where the high temperature will damage sensitive components.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.07
6.02.03.10.04
The HSR spin rotator design shall conform to the EIC Code of Records.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.08
6.02.03.10.04
The HSR spin rotator shall be designed to be cooled and sustained at its operational temperature utilizing the M,R,U,S,H Lines connecting to existing HSR cryogenic interconnect.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.09
6.02.03.10.04
The HSR spin rotator shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the constraints identified in the following HSR magnet requirements: P-HSR-MAG-SPINROTATOR.06.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.10
6.02.03.10.04
The HSR spin rotator shall be designed to have two relief plates for the insulating vacuum vessel, which meets the existing snake magnet design.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.11
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a cryogenic bypass pipe for the ACBS which meets the constraints identified in the following HSR vacuum cryomodule requirements: P-HSR-VAC-CRYOMOD.02, P-HSR-VAC-CRYOMOD.03, P-HSR-VAC-CRYOMOD.07, P-HSR-VAC-CRYOMOD.08 and P-HSR-VAC-CRYOMOD.09.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.12
6.02.03.10.04
The HSR spin rotator shall be designed to provide an mount for the cryogenic bypass pipe for the ACBS in the insulating vacuum.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.13
6.02.03.10.04
The HSR spin rotator shall be designed to utilize the magnet assembly applicable which meets the constraints identified in the HSR magnet requirements. (REF. P-HSR-MAG-SPINROTATOR.01 to P-HSR-MAG-SPINROTATOR.10)
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.14
6.02.03.10.04
The HSR spin rotator shall be designed to utilize an copper coated and amorphous carbon coated (Cu/aC) beam pipe which meets the constraints identified in the following HSR vacuum requirements: P-HSR-VAC.01, P-HSR-VAC.02, P-HSR-ARC-VAC.01, P-HSR-ARC-VAC.02 and P-HSR-ARC-VAC.03, P-HSR-VAC-SNAKE.XX-XX
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.15
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a tapered beampipe transition at its interconnects.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.16
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a Beam Position Monitor (BPM) pickup which meets the constraints identified in the following HSR BPM requirements P-HSR-INST-BPM-PU.01, P-HSR-INST-BPM-PU.02.03, P-HSR-INST-BPM-PU.03.03, P-HSR-INST-BPM-PU.04, P-HSR-INST-BPM-PU.05, P-HSR-INST-BPM-PU.06, P-HSR-INST-BPM-PU.07.02, P-HSR-INST-BPM-PU.04, and P-HSR-INST-BPM-PU.08 to P-HSR-INST-BPM-PU.13.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.17
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a Cu/aC coated beam position monitor pickup.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.18
6.02.03.10.04
The HSR spin rotator shall be designed to utilize the existing feedthrough turret for the Beam Position Monitor (BPM) cryogenic cables which meets the constraints identified in the HSR BPM cryogenic cable requirements. (REF. P-HSR-INST-BPM-CRYO_CABLES.01 to P-HSR-INST-BPM-CRYO_CABLES.05)
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.19
6.02.03.10.04
The HSR spin rotator feedthrough turret shall be designed to utilize a SiO2 beam position monitor cables
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.20
6.02.03.10.04
The HSR spin rotator feedthrough turret shall be designed to utilize a heatshield and heat strap for the beam position monitor cables
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.21
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a feedthrough turret for the power supply cables which meets the constraints identified in the HSR power supply requirements. (REF. P-HSR-PS-SPINROTATOR.01 to P-HSR-PS-SPINROTATOR.20)
02/09/2026
In Process
FALSE

HSR-SCMR-TRIPLET

HSR-SCMR-TRIPLET-DUAL

P-HSR-SCMR-TRIPLET-DUAL.01
6.02.03.10.01
The reconfigured dual cryostat triplets shall be located in IR8 and IR12 utilizing the RHIC yellow Q1/Q2/Q3 cold masses.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.02
6.02.03.10.01
The reconfigured dual cryostat Triplet redesign shall conform to the apertures in table in P-HSR-TRIPLET-DUAL.02.01.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.02.01
6.02.03.10.01
Location Q1 GV size (mm) Q3 GV size (mm) IR8 7 88 125 8 88 125 IR12 11 88 125 12 88 125 | Location | Q1 GV size (mm) | Q3 GV size (mm) IR8 | 7 | 88 | 125 | 8 | 88 | 125 IR12 | 11 | 88 | 125 | 12 | 88 | 125
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.03
6.02.03.10.01
The reconfigured dual cryostat triplets mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- TBD (um).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.04
6.02.03.10.01
The reconfigured dual cryostat triplets redesign shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.05
6.02.03.10.01
The reconfigured dual cryostat triplets redesign shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.06
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned to remove the D0 magnet cryostat connection.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.07
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned to remove the DX magnet connections.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.08
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned to have gate valves at each end.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.09
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned such that the blue line cold mass Q1/Q2/Q3 superconducting magnet shall passively cooled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.01
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have a warm to cold tapering transition to the Q1 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.02
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have a cold to warm tapering transition after the Q3 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.03
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have RF Shielded bellows in its cold to warm beamline inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.04
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have BPMs mounted in its beamline inside the cryostat and conform to meet the applicable HSR BPM requirements (P-HSR-INST-BPM-PU.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.05
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to be sleeved with the HSR beam screens and conform to meet the applicable HSR Beam Screen requirements (P-HSR-VAC-SCREENS.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.01
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic M-line shall be redesigned to accommodate the removal of the D0 and Dx magnet.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.02
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic H-line shall be redesigned to accommodate the removal of the D0 and Dx magnet.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.03
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic M,R,U,S,H Lines shall conform to the applicable cryogenics load tables in EIC Cryogenics Systems Functional Requirements [Document: EIC-SEG-RSI-010].
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.04
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic shall be redesigned such that the H-line from the yellow line connects to the blue Q3 M-line.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.05
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic shall be reconfigured such that the Q1 M-line from the blue line connects to the blue side H-line.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.06
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic shall be reconfigured such that the Q3 H-line from the blue line connects to the yellow side H-line in the Q3 pant leg.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.01
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum shielding and thermal blanketing shall be redesigned to accommodate the chnages in the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.02
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum capabilities shall conform with the applicable HSR Vacuum requirements (P-HSR-VAC.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.03
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum shall be redesigned to contain a beam screen heater assembly attached to the Q1 supply line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.04
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum shall be redesigned to contain a beam screen heater control valve assembly attached to the Q3 utility line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.13.01
6.02.03.10.01
The reconfigured dual cryostat triplets power supply feedthroughs shall be redesigned such that the blue line Q1/Q2/Q3 superconducting magnets power supply feedthroughs are disabled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.14
6.02.03.10.01
The reconfigured dual cryostat triplets quench protection feedthroughs shall be redesigned such that the blue line Q1/Q2/Q3 superconducting magnets quench protection feedthroughs are disabled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.15.01
6.02.03.10.01
The reconfigured dual cryostat triplets controls systems feedthroughs shall be redesigned such that the blue line Q1/Q2/Q3 superconducting magnets control feedthroughs are disabled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.33
6.02.03.10.01
The reconfigured dual cryostat triplets redesign shall conform to the EIC Code of Records.
02/09/2026
In Process
FALSE

HSR-SCMR-TRIPLET-SINGLE

P-HSR-SCMR-TRIPLET-SINGLE.01
6.02.03.10.02
The single cryostat triplet shall be designed to be located in IR2, IR4 and IR10 utilizing a single cryostat with existing Q1/Q2/Q3 cold masses.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.02
6.02.03.10.02
The single cryostat triplet design shall conform to the apertures in table in P-HSR-TRIPLET-SINGLE.02.01.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.02.01
6.02.03.10.02
Location Q1 GV size (mm) Q3 GV size (mm) IR2 1 125 125 2 125 125 IR4 3 88 125 4 125 125 IR10 9 88 125 10 88 125 | Location | Q1 GV size (mm) | Q3 GV size (mm) IR2 | 1 | 125 | 125 | 2 | 125 | 125 IR4 | 3 | 88 | 125 | 4 | 125 | 125 IR10 | 9 | 88 | 125 | 10 | 88 | 125
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.03
6.02.03.10.02
The single cryostat triplet design mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- TBD (um).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.04
6.02.03.10.02
The Single Cryostat Triplet design shall be designed to not have a resonant frequency at or below TBD (Hz).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.05
6.02.03.10.02
The single cryostat triplet design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.06
6.02.03.10.02
The single cryostat triplet shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.07
6.02.03.10.02
The single cryostat triplet shall be designed to have gate valves at each end.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.08
6.02.03.10.02
The single cryostat triplet design shall conform to the EIC Code of Records.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.01
6.02.03.10.02
The single cryostat triplet beamline in IR2, IR4 and IR10 shall be designed to have a cold to warm tapering transition to the Q1 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.02
6.02.03.10.02
The single cryostat triplet beamline in IR2, IR4 and IR10 shall be designed to have a cold to warm tapering transition after the Q3 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.03
6.02.03.10.02
The single cryostat triplet beamline shall be designed to have RF Shielded bellows in its cold to warm beamline inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.04
6.02.03.10.02
The single cryostat triplet beamline shall be designed to have BPMs mounted in its beamline inside the cryostat and conform to meet the applicable HSR BPM requirements (P-HSR-INST-BPM-PU.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.05
6.02.03.10.02
The single cryostat triplet beamline shall be designed to be sleeved with the HSR beam screens and conform to meet the applicable HSR Beam Screen requirements (P-HSR-VAC-SCREENS.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.01
6.02.03.10.02
The single cryostat triplet cryogenic M,R,U,S,H Lines shall have two(2) configurations for IR2, IR4 and IR10 to interconnect on each side of the IR.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.02
6.02.03.10.02
The single cryostat triplet cryogenic first M,R,U,S,H Lines configuration shall be redesigned to be a standard HSR ARC configuration.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.03
6.02.03.10.02
The single cryostat triplet cryogenic second M,R,U,S,H Lines configuration shall be redesigned to be mirror of the standard HSR ARC configuration.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.04
6.02.03.10.02
The single cryostat triplet cryogenic M,R,U,S,H Lines shall conform to the applicable cryogenics load tables in EIC Cryogenics Systems Functional Requirements [Document: EIC-SEG-RSI-010].
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.05
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 cryogenic system shall be designed such that the Q1 M,R,U,S,H Lines connects to existing HSR Q1 yellow pant leg.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.06
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 cryogenic system shall be designed such that the Q3 M,R,U,S,H Lines connects to existing HSR Q3 yellow pant leg.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.01
6.02.03.10.02
The single cryostat triplet vacuum shielding and thermal blanketing shall be redesigned to accommodate the changes in the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.02
6.02.03.10.02
The single cryostat triplet vacuum design capabilities shall conform with applicable HSR Vacuum requirements (P-HSR-VAC.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.03
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 vacuum system shall be designed to contain a beam screen heater assembly attached to the Q1 supply line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.04
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 vacuum system shall be designed to contain a beam screen heater control valve assembly attached to the Q3 utility line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.12
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 shall be designed such that the Q1/Q2/Q3 superconducting magnets power supply has feedthroughs.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.13
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 shall be designed such that the Q1/Q2/Q3 superconducting magnets quench protection has feedthroughs.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.14
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 shall be designed such that the Q1/Q2/Q3 superconducting magnets control system has feedthroughs.
02/09/2026
In Process
FALSE

HSR-SNAKE

F-HSR-SNAKE.01
6.02.03
Six Siberian Snakes shall be required. · Two existing yellow ring snakes, one in RHIC sector 9 and one in RHIC sector 3, shall stay. · Four additional snakes will be positioned as specified in requirements F-HSR-SNAKE.05 to F-HSR-SNAKE.11
02/09/2026
Approved
FALSE

F-HSR-SNAKE.02
6.02.03
All the snake magnets shall operate utilizing exsisting RHIC ARC cyrogenic distrubution system.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.03
6.02.03
All individual snake magnets shall be powered by individual power supplies.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.04
6.02.03
The HSR snakes shall have the modifications required to accommodate the retrofitted HSR beam screens.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.05
6.02.03
Two additional snakes shall be transferred over from the RHIC Blue ring.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.06
6.02.03
One additional snake shall be placed between Q7 and Q8 at 11 o’clock area of high energy arc.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.07
6.02.03
One additional snake shall be placed between Q8 and Q7 in sector 1 of the 2 o’clock area.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.08
6.02.03
Two additional snakes shall be constructed by reconfiguring four spin rotators removed from the RHIC Blue ring.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.09
6.02.03
One additional reconfigured snake shall be placed sector 5 with its axis parallel to the snake in sector 11.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.10
6.02.03
One additional reconfigured snake shall be placed between Q7 and Q8 in sector 7 of the 8 o’clock area.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.11
6.02.03
All additional snakes shall repeat the internal structure of existing Snakes.
02/09/2026
Approved
FALSE

HSR-STR : Hadron Storage Ring Straight Section IR Beam

HSR-STR-IR02 : IR02 Straight Section

HSR-STR-IR04 : IR04 Straight Section

HSR-STR-IR06 : IR06 Straight Section

HSR-STR-IR08 : IR08 Straight Section

HSR-STR-IR10 : IR10 Straight Section

HSR-STR-IR12 : IR12 Straight Section

Interaction Region Requirements

General, functional and performance requirements associated with the Interaction Region of the Electron Ion Collider.

Name
WBS
Description
Updated
Status
TBD
IR : Interaction Region

G-IR.01
6.06
The IR shall focus the electron, and hadron beams to sufficiently small spot sizes at the collision point, necessary to achieve the design luminosity set forth in MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

G-IR.02
6.06
There shall be at least one interaction region and detector system in the EIC while maintaining the feasibility of adding a second.
08/20/2025
Approved
FALSE

G-IR.03
6.06
The IR shall be contained within the existing RHIC tunnel in the wide-angle hall detector building at IP6 between the associated arcs.
08/20/2025
Approved
FALSE

G-IR.04
6.06
The IR shall accommodate the space for all other required EIC systems along with their installation needs
08/20/2025
Approved
FALSE

G-IR.05
6.06
The IR shall be designed to allow both the hadron and electron beam spins to be controlled at the IP, meeting all the requirements set forth in the MPT [EIC-SEG- RSI-005].
08/20/2025
Approved
FALSE

G-IR.06
6.06
The IR shall be equipped with beam position monitors and dipole correctors to correct the HSR and ESR orbits as required to enable stable accelerator operation
08/20/2025
Approved
FALSE

G-IR.07
6.06
The IR shall be designed to accommodate all the detector elements required to meet the physics goals of the EIC in the MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

G-IR.08
6.06
The IR shall be designed to minimize all background on the detector elements as required to meet the physics goals of the EIC.
08/20/2025
Approved
FALSE

G-IR.09
6.06
The design should guarantee the operational availability of the IR shall be consistent with the operational availability required for the overall EIC as set forth in the GRD [EIC-ORG-PLN-010].
08/20/2025
Approved
FALSE

G-IR.10
6.06
The design operational availability of the IR shall be consistent with the operational availability required for the overall EIC as set forth in the GRD [EIC- ORG-PLN-010].
08/20/2025
Approved
FALSE

G-IR.11
6.06
The IR shall provide all the connections for all the services (Cooling, process air, process water, instrumentation connections, control system connections, cryogenic system connections) required to meet the operational needs of all components in IR6.
08/20/2025
Approved
FALSE

F-IR.01
6.06
The 1st EIC IR detector system shall be located at the IP of IR6.
08/20/2025
Approved
FALSE

F-IR.02
6.06
The EIC IR shall guide the hadron and electron beams to collide at the IP of IR6.
08/20/2025
Approved
FALSE

F-IR.03
6.06
The EIC IR shall include the regions which extend circumferentially into the RHIC tunnel between the periodic arc cells of the HSR/ESR at IR6, approximately +/- 160m around the IP.
08/20/2025
Approved
FALSE

F-IR.04
6.06
The EIC IR electron and hadron beam lines shall have linear lattice functions matched to the incoming and outgoing arcs of the ESR and HSR respectively.
08/20/2025
Approved
FALSE

F-IR.05
6.06
The EIC IR shall include a stay clear volume around the IP, as required to accommodate the EIC detector system. Relative to the IP (orbit crossing point) the stay clear shall extend in Z -4.5(m) in the Electron direction and +5(m) along Z in Hadron direction, with an additional 0.5m on either side in Z. Creating a total stay clear length in Z of 10.5(m).
08/20/2025
Approved
FALSE

F-IR.06
6.06
The EIC IR shall include a stay clear volume between the detector and the front face of the IR SC-magnets of 0.5m to allow the installation for vacuum components (valves, bellows, pumping stations)
08/20/2025
Approved
FALSE

F-IR.07
6.06
The EIC IR crossing angle shall allow the low beta focusing magnets of both beams to be installed close to the IP.
08/20/2025
Approved
FALSE

F-IR.08
6.06
The EIC IR shall be designed to provide the necessary beam cross sections to support the luminosity goals set forth in the MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

F-IR.09
6.06
The EIC IR shall be designed so that the electron and hadron beams have the same cross- sectional area and maximum overlap to achieve the high luminosities required in the MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

F-IR.10
6.06
The EIC IR shall separate the beams at the smallest geometrically possible crossing angle to limit crab cavity voltage.
08/20/2025
Approved
FALSE

F-IR.11
6.06
The IR operational uptime shall match the operational uptime requirements of the EIC refer to the EIC GRD [EIC-ORG-PLN-010].
08/20/2025
Approved
FALSE

P-ESR-MAG-Q:60.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:50.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-Q:80.05
6.01.02.02
The magnet shall be designed to specifically constrain the external fringe field Y (Yes or No)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.01
6.02.02.03.01.01
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.02
6.02.02.03.01.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.03
6.02.02.03.01.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.06
6.02.02.03.01.01
The physical magnet length shall be <2.73 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.10
6.02.02.03.01.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.01.11.02
6.02.02.03.01.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.01
6.02.02.03.01.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.06
6.02.02.03.01.01
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.02.07
6.02.02.03.01.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.01
6.02.02.03.01.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.02
6.02.02.03.01.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03
6.02.02.03.01.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.01
6.02.02.03.01.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.02
6.02.02.03.01.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.03
6.02.02.03.01.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.04
6.02.02.03.01.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.05
6.02.02.03.01.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.06
6.02.02.03.01.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.07
6.02.02.03.01.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.08
6.02.02.03.01.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.09
6.02.02.03.01.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.10
6.02.02.03.01.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.11
6.02.02.03.01.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.12
6.02.02.03.01.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.13
6.02.02.03.01.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.14
6.02.02.03.01.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.15
6.02.02.03.01.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.03.03.16
6.02.02.03.01.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.04
6.02.02.03.01.01
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.05
6.02.02.03.01.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.09
6.02.02.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:273.10
6.02.02.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01
6.02.02.03.01.02
The magnet shall be a single function dipole with a vertical field direction.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.02
6.02.02.03.01.02
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.01.02-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.03
6.02.02.03.01.02
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.01.03-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.06
6.02.02.03.01.02
The physical magnet length shall be <1.13 (m).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.10
6.02.02.03.01.02
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.01.11.02
6.02.02.03.01.02
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.01
6.02.02.03.01.02
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.02.01-1)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.04
6.02.02.03.01.02
The magnet good field aperture dAx required shall be 35.0345 mm.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.06
6.02.02.03.01.02
The magnet-to-magnet variability shall be < 0.1%.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.02.07
6.02.02.03.01.02
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.01
6.02.02.03.01.02
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.03.01-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.02
6.02.02.03.01.02
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03
6.02.02.03.01.02
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.01
6.02.02.03.01.02
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.02
6.02.02.03.01.02
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.03
6.02.02.03.01.02
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.04
6.02.02.03.01.02
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.05
6.02.02.03.01.02
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.06
6.02.02.03.01.02
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.07
6.02.02.03.01.02
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.08
6.02.02.03.01.02
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.09
6.02.02.03.01.02
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.10
6.02.02.03.01.02
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.11
6.02.02.03.01.02
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.12
6.02.02.03.01.02
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.13
6.02.02.03.01.02
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.14
6.02.02.03.01.02
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.15
6.02.02.03.01.02
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.03.03.16
6.02.02.03.01.02
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.04
6.02.02.03.01.02
The magnet shall not be designed to limit CrossTalk requirements.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.05
6.02.02.03.01.02
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.09
6.02.02.03.01.02
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
02/09/2026
Approved
FALSE

P-ESR-MAG-TD:89.10
6.02.02.03.01.02
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.03
6.02.03.10
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.04
6.02.03.10
The magnet is a Dipole(D5I) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.05
6.02.03.10
The magnet is a Dipole(D5I) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D5I.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.03
6.02.03.10
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.04
6.02.03.10
The magnet is a Dipole(D5O) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.05
6.02.03.10
The magnet is a Dipole(D5O) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D5O.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.03
6.02.03.10
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.04
6.02.03.10
The magnet is a Dipole(D6) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.05
6.02.03.10
The magnet is a Dipole(D6) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D6.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D6.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.03
6.02.03.10
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.04
6.02.03.10
The magnet is a Dipole(D8) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.05
6.02.03.10
The magnet is a Dipole(D8) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D8.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.03
6.02.03.10
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.04
6.02.03.10
The magnet is a Dipole(D9) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.05
6.02.03.10
The magnet is a Dipole(D9) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
In Process
FALSE

P-HSR-MAG-D9.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
02/09/2026
Approved
FALSE

P-HSR-MAG-D9.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/09/2026
Approved
FALSE

F-IR.12
6.06
The EIC IR electron and hadron spin manipulation components shall be designed to provide the spin orientation at the IP as specified in the EIC GRD [EIC-ORG-PLN-010].
09/30/2025
Approved
FALSE

F-IR.13
6.06
The EIC IR process of orientating the spin to longitudinal direction at the IP shall not affect the spin outside the IR.
08/20/2025
Approved
FALSE

IR-PS : IR Magnet Power Supply (WBS 6.06.02)

IR-PS-ESR

IR-PS-ESR-B1EF : IR Magnet Power Supply D1EF (WBS 6.06.02.01)

IR-PS-ESR-Q0EF : IR Magnet Power Supply Q0EF (WBS 6.06.02.01)

IR-PS-ESR-Q1EF : IR Magnet Power Supply Q1EF (WBS 6.06.02.01)

IR-PS-ESR-Q1ER : IR Magnet Power Supply Q1ER (WBS 6.06.02.01)

IR-PS-ESR-Q2EF : IR Magnet Power Supply Q2EF (WBS 6.06.02.01)

IR-PS-ESR-Q2ER : IR Magnet Power Supply Q2ER (WBS 6.06.02.01)

IR-PS-ESR-LSR : IR Magnet Power Supply LONG_S (WBS 6.06.02.02)

P-IR-PS-ESR-LSR.1
6.06.07.01.16
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.2
6.06.07.01.16
The maximum magnet string resistance to be powered shall be TBD ohm
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.3
6.06.07.01.16
The maximum magnet string inductance to be powered shall be TBD H
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.4
6.06.07.01.16
The magnets being powered shall be saturated TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.5
6.06.07.01.16
The miits rating of the magnet being powred shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.6
6.06.07.01.16
The voltage to ground of the magnet being powered shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.7
6.06.07.01.16
The nominal current of the magnets being powered shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.8
6.06.07.01.16
The minmum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.9
6.06.07.01.16
The maximum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.10
6.06.07.01.16
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.11
6.06.07.01.16
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.12
6.06.07.01.16
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.13
6.06.07.01.16
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.14
6.06.07.01.16
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.15
6.06.07.01.16
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.16
6.06.07.01.16
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.17
6.06.07.01.16
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.18
6.06.07.01.16
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.19
6.06.07.01.16
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.20
6.06.07.01.16
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.21
6.06.07.01.16
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.22
6.06.07.01.16
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.23
6.06.07.01.16
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.24
6.06.07.01.16
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.25
6.06.07.01.16
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.26
6.06.07.01.16
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.27
6.06.07.01.16
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.28
6.06.07.01.16
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.29
6.06.07.01.16
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.30
6.06.07.01.16
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.31
6.06.07.01.16
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.32
6.06.07.01.16
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.33
6.06.07.01.16
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.34
6.06.07.01.16
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.35
6.06.07.01.16
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-LSR.36
6.06.07.01.16
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-PS-ESR-SSR : IR Magnet Power Supply SHORT_S (WBS 6.06.02.02)

P-IR-PS-ESR-SSR.1
6.06.07.01.17
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.2
6.06.07.01.17
The maximum magnet string resistance to be powered shall be TBD ohm
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.3
6.06.07.01.17
The maximum magnet string inductance to be powered shall be TBD H
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.4
6.06.07.01.17
The magnets being powered shall be saturated TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.5
6.06.07.01.17
The miits rating of the magnet being powred shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.6
6.06.07.01.17
The voltage to ground of the magnet being powered shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.7
6.06.07.01.17
The nominal current of the magnets being powered shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.8
6.06.07.01.17
The minmum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.9
6.06.07.01.17
The maximum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.10
6.06.07.01.17
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.11
6.06.07.01.17
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.12
6.06.07.01.17
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.13
6.06.07.01.17
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.14
6.06.07.01.17
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.15
6.06.07.01.17
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.16
6.06.07.01.17
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.17
6.06.07.01.17
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.18
6.06.07.01.17
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.19
6.06.07.01.17
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.20
6.06.07.01.17
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.21
6.06.07.01.17
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.22
6.06.07.01.17
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.23
6.06.07.01.17
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.24
6.06.07.01.17
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.25
6.06.07.01.17
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.26
6.06.07.01.17
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.27
6.06.07.01.17
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.28
6.06.07.01.17
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.29
6.06.07.01.17
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.30
6.06.07.01.17
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.31
6.06.07.01.17
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.32
6.06.07.01.17
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.33
6.06.07.01.17
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.34
6.06.07.01.17
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.35
6.06.07.01.17
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-ESR-SSR.36
6.06.07.01.17
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-PS-HSR

IR-PS-HSR-B0APF : IR Magnet Power Supply B0APF (WBS 6.06.02.03)

IR-PS-HSR-B0PF : IR Magnet Power Supply B0PF (WBS 6.06.02.03)

IR-PS-HSR-B1APF : IR Magnet Power Supply B1APF (WBS 6.06.02.03)

P-IR-PS-HSR-B1APF.01
6.06.07.01.10
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.02
6.06.07.01.10
The maximum magnet string resistance to be powered shall be TBD ohm
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.03
6.06.07.01.10
The maximum magnet string inductance to be powered shall be TBD H
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.04
6.06.07.01.10
The magnets being powered shall be saturated TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.05
6.06.07.01.10
The miits rating of the magnet being powred shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.06
6.06.07.01.10
The voltage to ground of the magnet being powered shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.07
6.06.07.01.10
The nominal current of the magnets being powered shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.08
6.06.07.01.10
The minmum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.09
6.06.07.01.10
The maximum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.10
6.06.07.01.10
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.11
6.06.07.01.10
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.12
6.06.07.01.10
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.13
6.06.07.01.10
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.14
6.06.07.01.10
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.15
6.06.07.01.10
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.16
6.06.07.01.10
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.17
6.06.07.01.10
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.18
6.06.07.01.10
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.19
6.06.07.01.10
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.20
6.06.07.01.10
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.21
6.06.07.01.10
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.22
6.06.07.01.10
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.23
6.06.07.01.10
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.24
6.06.07.01.10
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.25
6.06.07.01.10
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.26
6.06.07.01.10
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.27
6.06.07.01.10
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.28
6.06.07.01.10
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.29
6.06.07.01.10
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.30
6.06.07.01.10
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.31
6.06.07.01.10
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.32
6.06.07.01.10
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.33
6.06.07.01.10
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.34
6.06.07.01.10
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.35
6.06.07.01.10
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1APF.36
6.06.07.01.10
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-PS-HSR-B1PF : IR Magnet Power Supply B1PF (WBS 6.06.02.03)

P-IR-PS-HSR-B1PF.01
6.06.07.01.09
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.02
6.06.07.01.09
The maximum magnet string resistance to be powered shall be TBD ohm
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.03
6.06.07.01.09
The maximum magnet string inductance to be powered shall be TBD H
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.04
6.06.07.01.09
The magnets being powered shall be saturated TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.05
6.06.07.01.09
The miits rating of the magnet being powred shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.06
6.06.07.01.09
The voltage to ground of the magnet being powered shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.07
6.06.07.01.09
The nominal current of the magnets being powered shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.08
6.06.07.01.09
The minmum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.09
6.06.07.01.09
The maximum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.10
6.06.07.01.09
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.11
6.06.07.01.09
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.12
6.06.07.01.09
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.13
6.06.07.01.09
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.14
6.06.07.01.09
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.15
6.06.07.01.09
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.16
6.06.07.01.09
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.17
6.06.07.01.09
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.18
6.06.07.01.09
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.19
6.06.07.01.09
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.20
6.06.07.01.09
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.21
6.06.07.01.09
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.22
6.06.07.01.09
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.23
6.06.07.01.09
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.24
6.06.07.01.09
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.25
6.06.07.01.09
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.26
6.06.07.01.09
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.27
6.06.07.01.09
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.28
6.06.07.01.09
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.29
6.06.07.01.09
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.30
6.06.07.01.09
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.31
6.06.07.01.09
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.32
6.06.07.01.09
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.33
6.06.07.01.09
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.34
6.06.07.01.09
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.35
6.06.07.01.09
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B1PF.36
6.06.07.01.09
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-PS-HSR-B1PR : IR Magnet Power Supply B1PR (WBS 6.06.02.03)

IR-PS-HSR-B2PR : IR Magnet Power Supply B2PR (WBS 6.06.02.03)

IR-PS-HSR-Q1APF : IR Magnet Power Supply Q1APF (WBS 6.06.02.03)

P-IR-PS-HSR-Q1APF.1
6.06.07.01.05
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.2
6.06.07.01.05
The maximum magnet string resistance to be powered shall be TBD ohm
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.3
6.06.07.01.05
The maximum magnet string inductance to be powered shall be TBD H
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.4
6.06.07.01.05
The magnets being powered shall be saturated TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.5
6.06.07.01.05
The miits rating of the magnet being powred shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.6
6.06.07.01.05
The voltage to ground of the magnet being powered shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.7
6.06.07.01.05
The nominal current of the magnets being powered shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.8
6.06.07.01.05
The minmum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.9
6.06.07.01.05
The maximum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.10
6.06.07.01.05
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.11
6.06.07.01.05
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.12
6.06.07.01.05
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.13
6.06.07.01.05
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.14
6.06.07.01.05
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.15
6.06.07.01.05
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.16
6.06.07.01.05
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.17
6.06.07.01.05
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.18
6.06.07.01.05
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.19
6.06.07.01.05
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.20
6.06.07.01.05
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.21
6.06.07.01.05
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.22
6.06.07.01.05
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.23
6.06.07.01.05
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.24
6.06.07.01.05
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.25
6.06.07.01.05
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.26
6.06.07.01.05
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.27
6.06.07.01.05
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.28
6.06.07.01.05
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.29
6.06.07.01.05
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.30
6.06.07.01.05
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.31
6.06.07.01.05
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.32
6.06.07.01.05
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.33
6.06.07.01.05
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.34
6.06.07.01.05
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.35
6.06.07.01.05
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1APF.36
6.06.07.01.05
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-PS-HSR-Q1APR : IR Magnet Power Supply Q1APR (WBS 6.06.02.03)

IR-PS-HSR-Q1BPF : IR Magnet Power Supply Q1BPF (WBS 6.06.02.03)

P-IR-PS-HSR-Q1BPF.1
6.06.07.01.06
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.2
6.06.07.01.06
The maximum magnet string resistance to be powered shall be TBD ohm
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.3
6.06.07.01.06
The maximum magnet string inductance to be powered shall be TBD H
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.4
6.06.07.01.06
The magnets being powered shall be saturated TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.5
6.06.07.01.06
The miits rating of the magnet being powred shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.6
6.06.07.01.06
The voltage to ground of the magnet being powered shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.7
6.06.07.01.06
The nominal current of the magnets being powered shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.8
6.06.07.01.06
The minmum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.9
6.06.07.01.06
The maximum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.10
6.06.07.01.06
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.11
6.06.07.01.06
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.12
6.06.07.01.06
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.13
6.06.07.01.06
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.14
6.06.07.01.06
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.15
6.06.07.01.06
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.16
6.06.07.01.06
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.17
6.06.07.01.06
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.18
6.06.07.01.06
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.19
6.06.07.01.06
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.20
6.06.07.01.06
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.21
6.06.07.01.06
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.22
6.06.07.01.06
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.23
6.06.07.01.06
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.24
6.06.07.01.06
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.25
6.06.07.01.06
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.26
6.06.07.01.06
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.27
6.06.07.01.06
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.28
6.06.07.01.06
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.29
6.06.07.01.06
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.30
6.06.07.01.06
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.31
6.06.07.01.06
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.32
6.06.07.01.06
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.33
6.06.07.01.06
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.34
6.06.07.01.06
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.35
6.06.07.01.06
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q1BPF.36
6.06.07.01.06
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-PS-HSR-Q1BPR : IR Magnet Power Supply Q1BPR (WBS 6.06.02.03)

IR-PS-HSR-Q2PF : IR Magnet Power Supply Q2PF (WBS 6.06.02.03)

P-IR-PS-HSR-Q2PF.01
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.2
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.3
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.4
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.5
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.6
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.7
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.8
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.9
6.06.07.01.08
The number of Independent functions on the magnets being powered shall be TBD
02/09/2026
In Process
FALSE

P-IR-PS-HSR-Q2PF.10
6.06.07.01.08
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.11
6.06.07.01.08
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.12
6.06.07.01.08
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.13
6.06.07.01.08
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.14
6.06.07.01.08
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.15
6.06.07.01.08
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.16
6.06.07.01.08
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.17
6.06.07.01.08
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.18
6.06.07.01.08
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.19
6.06.07.01.08
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.20
6.06.07.01.08
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.21
6.06.07.01.08
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.22
6.06.07.01.08
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.23
6.06.07.01.08
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.24
6.06.07.01.08
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.25
6.06.07.01.08
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.26
6.06.07.01.08
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.27
6.06.07.01.08
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.28
6.06.07.01.08
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.29
6.06.07.01.08
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.30
6.06.07.01.08
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.31
6.06.07.01.08
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.32
6.06.07.01.08
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.33
6.06.07.01.08
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.34
6.06.07.01.08
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.35
6.06.07.01.08
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-Q2PF.36
6.06.07.01.08
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-PS-HSR-Q2PR : IR Magnet Power Supply Q2PR (WBS 6.06.02.03)

IR-PS-HSR-B2PF : IR Magnet Power Supply B2PF (WBS 6.06.02.06)

P-IR-PS-HSR-B2PF.01
6.06.07.01.18
The number of Independent functions on the magnets being powered shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.02
6.06.07.01.18
The maximum magnet string resistance to be powered shall be TBD ohm
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.03
6.06.07.01.18
The maximum magnet string inductance to be powered shall be TBD H
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.04
6.06.07.01.18
The magnets being powered shall be saturated TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.05
6.06.07.01.18
The miits rating of the magnet being powred shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.06
6.06.07.01.18
The voltage to ground of the magnet being powered shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.07
6.06.07.01.18
The nominal current of the magnets being powered shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.08
6.06.07.01.18
The minmum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.09
6.06.07.01.18
The maximum current the PS must operate at shall be TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.10
6.06.07.01.18
The PS current type DC or AC shall be TBD DC\AC
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.11
6.06.07.01.18
The PS AC waveshape required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.12
6.06.07.01.18
The peak waveshape di/dt during ramping shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.13
6.06.07.01.18
The full power bandwidth required shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.14
6.06.07.01.18
The ppm of full scale current (peak to peak) shall be TBD %
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.15
6.06.07.01.18
The time period for specified stability shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.16
6.06.07.01.18
The short term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.17
6.06.07.01.18
The long term stability shall be TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.18
6.06.07.01.18
The current setpoint resolution (min size in bits) shall be TBD bits
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.19
6.06.07.01.18
The synchronization required between PS's shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.20
6.06.07.01.18
The synchronization timing of synchronization shall be TBD s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.21
6.06.07.01.18
The max allowable current ripple (peak to peak) TBD A
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.22
6.06.07.01.18
The max current ripple frequency range (Hz) TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.23
6.06.07.01.18
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.24
6.06.07.01.18
The max voltage ripple (peak to peak) shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.25
6.06.07.01.18
An NMR shall be required to measure the field TBD A/s
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.26
6.06.07.01.18
The voltage tap configuration shall be TBD -
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.27
6.06.07.01.18
The threshold levels shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.28
6.06.07.01.18
The peak di/dt without inducing a quench shall be TBD A/S
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.29
6.06.07.01.18
The design shall have quench heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.30
6.06.07.01.18
The quench heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.31
6.06.07.01.18
The design shall have warm up heaters TBD Y/N
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.32
6.06.07.01.18
The warmup heater power rating shall be TBD W
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.33
6.06.07.01.18
The current required to be shunted through the magnet shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.34
6.06.07.01.18
The magnet turns ratio shall be TBD
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.35
6.06.07.01.18
The terminal voltage shall be TBD V
09/25/2025
In Process
FALSE

P-IR-PS-HSR-B2PF.36
6.06.07.01.18
The design shall have thermal switches TBD
09/25/2025
In Process
FALSE

IR-MAG : IR Magnet (WBS 6.06.02.01)

IR-MAG-ESR : Interaction Region/Electron Storage Ring Magnets

IR-MAG-ESR-Q0EF : IR Magnet Q0EF (WBS 6.06.02.01.01)

P-IR-MAG-ESR-Q0EF.01.01
6.06.05.01
The magnet shall have a single function normal Quadrupole field.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.27 (m).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.01.09
6.06.05.01
The inner beam tube bore radius when warm, shall be greater than 28.5(mm).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.01.11.01
6.06.05.01
The magnet cryostat shall be designed such that The main cylindrical volume has An outside diameter less than 0.9(m) A length less than 1.65(m). All ancillary equipment, support structures and turrets, which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: Displacement in X= +/-150 (um) Displacement in Y= +/-150 (um) Displacement in Z= +/-150 (um)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: Rotational about X= +/-0.2 (mrad) Rotational about Y= +/-0.2 (mrad) Rotational about Z= +/-0.2 (mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.02.01
6.06.05.01
The maximum integrated Quadrupole field required in the bore of Q0eF is 15.8 (T), the magnet design shall include an additional 10% tuning margin giving a required field of 17.4 (T).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position Displacement in X= 2(mm) Displacement in Y= 2(mm) Displacement in Z= 2(mm)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis Rotational about X= +/-0.2(mrad) Rotational about Y= +/-0.2(mrad) Rotational about Z= +/-0.2(mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.02.08
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q0EF.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.01
6.06.05.01
The harmonic reference radius at which the field quality shall be measured is 18(mm) wrt the ESR axis
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.02
6.06.05.01
The field harmonics shall be made at the reference radius for the following energies: Measurement 1: at 5GeV Measurement 2: at 10GeV Measurement 3: at 18GeV
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03
6.06.05.01
The magnet bore field SHALL have the following multipole content. The units are specified in parts 10-4 of the main component.(see comments For additional notes)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.02
6.06.05.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.03
6.06.05.01
Measurement 1: -1< b3 < 1, Measurement 2: -1< b3 < 1, Measurement 3: -1< b3 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.04
6.06.05.01
Measurement 1: -1< b4 < 1, Measurement 2: -1< b4 < 1, Measurement 3: -1< b4 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.05
6.06.05.01
Measurement 1: -1< b5 <1, Measurement 2: -1< b5 <1, Measurement 3: -1< b5 <1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.06
6.06.05.01
Measurement 1: -1< b6 < 1, Measurement 2: -1< b6 < 1, Measurement 3: -1< b6 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.07
6.06.05.01
Measurement 1: -1< b7 < 1, Measurement 2: -1< b7 < 1, Measurement 3: -1< b7 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.08
6.06.05.01
Measurement 1: -1< b8 < 1, Measurement 2: -1< b8 < 1, Measurement 3: -1< b8 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.09
6.06.05.01
Measurement 1: -1< b9 < 1, Measurement 2: -1< b9 < 1, Measurement 3: -1< b9 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.10
6.06.05.01
Measurement 1: -1< b10 <1, Measurement 2: -1< b10 <1, Measurement 3: -1< b10 <1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.11
6.06.05.01
Measurement 1: -1< b11 < 1, Measurement 2: -1< b11 < 1, Measurement 3: -1< b11 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.12
6.06.05.01
Measurement 1: -1< b12 < 1, Measurement 2: -1< b12 < 1, Measurement 3: -1< b12 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.13
6.06.05.01
Measurement 1: -1< b13 < 1, Measurement 2: -1< b13 < 1, Measurement 3: -1< b13 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.14
6.06.05.01
Measurement 1: -1< b14 < 1, Measurement 2: -1< b14 < 1, Measurement 3: -1< b14 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.15
6.06.05.01
Measurement 1: -1< b15 < 1, Measurement 2: -1< b15 < 1, Measurement 3: -1< b15 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.03.03.16
6.06.05.01
Measurement 1: -1< b16 < 1, Measurement 2: -1< b16 < 1, Measurement 3: -1< b16 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.00
6.06.05.01
The magnet cross-talk shall be constrained such that all harmonic multipoles within the HSR beampipe are as follows
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.01
6.06.05.01
The field shall be measured within a cylinder containing the volume occupied by the HSR bore having a radius ~ 50(mm) centered at X=160(mm), y=0(mm) with respect to the ESR axis. The length of the cylinder L shall extend along the length of the Q0eF magnet. along the length of the B0PF magnet.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.02
6.06.05.01
The field measurements shall be made with the Quadrupole Q0EF energized to its maximum field the following values. The measurement may be made with B0eF off or on or and is not required to be present in the B0pF bore.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03
6.06.05.01
The multipole crosstalk in the Q0EF magnet bore from the B0PF field SHALL not exceed the following values, Note; The units are (Gauss.m). (Comment contains additional notes)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.01
6.06.05.01
B1 has no requirements
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.02
6.06.05.01
B2 has no requirements
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.03
6.06.05.01
Measurement 1: -3< B3 <3, Measurement 2: -3< B3 <3, Measurement 3: -3< B3 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.04
6.06.05.01
Measurement 1: -3< B4 <3, Measurement 2: -3< B4 <3, Measurement 3: -3< B4 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.05
6.06.05.01
Measurement 1: -3< B5 <3, Measurement 2: -3< B5 <3, Measurement 3: -3< B5 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.06
6.06.05.01
Measurement 1: -3< B6 <3, Measurement 2: -3< B6 <3, Measurement 3: -3< B6 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.07
6.06.05.01
Measurement 1: -3< B7 <3, Measurement 2: -3< B7 <3, Measurement 3: -3< B7 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.08
6.06.05.01
Measurement 1: -3< B8 <3, Measurement 2: -3< B8 <3, Measurement 3: -3< B8 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.09
6.06.05.01
Measurement 1: -3< B9 <3, Measurement 2: -3< B9 <3, Measurement 3: -3< B9 <3, Measurement 4: -3< B9 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.10
6.06.05.01
Measurement 1: -3< B10 <3, Measurement 2: -3< B10 <3, Measurement 3: -3< B10 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.11
6.06.05.01
Measurement 1: -3< B11 <3, Measurement 2: -3< B11 <3, Measurement 3: -3< B11 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.12
6.06.05.01
Measurement 1: -3< B12 <3, Measurement 2: -3< B12 <3, Measurement 3: -3< B12 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.13
6.06.05.01
Measurement 1: -3< B13 <3, Measurement 2: -3< B13 <3, Measurement 3: -3< B13 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.14
6.06.05.01
Measurement 1: -3< B14 <3, Measurement 2: -3< B14 <3, Measurement 3: -3< B14 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.15
6.06.05.01
Measurement 1: -3< B15 <3, Measurement 2: -3< B15 <3, Measurement 3: -3< B15 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.04.03.16
6.06.05.01
Measurement 1: -3< B16 <3, Measurement 2: -3< B16 <3, Measurement 3: -3< B16 <3
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a forced flow circuit of supercritical helium flow at 3.5 bar, and 4.7K and at a sufficient flowrate to maintain a sensible temperature rise of no more than 0.2K.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.02
6.06.05.01
The magnet HTS current leads’ HTS/Copper-leads heat station shall be designed to be cooled and sustain operations at nominal operating conditions using supply helium at 3.5 (bar) and can be part of the cooling circuit of the HTS station of the B0pF and shall have an exit temperature of 40K.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 2(W) while maintaining nominal operating conditions under a forced flow cooling circuit of supercritical helium at 3.5 bar and 4.7K
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10.3 (bar)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.06.09
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q0EF.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q0EF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q0EF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q0EF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q0EF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q0EF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

R-IR-MAG-ESR-Q0eF.01.01
6.06.03.01
The magnet design team shall design the cold mass piping and connections including heat exchanger pipes and yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.01.02
6.06.03.01
The cryogenics group shall create schematics with the piping and connectors needed to connect the magnet to the 4.5 K distribution system.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.01.03
6.06.03.01
The cryogenics group shall provide the piping and accessories necessary to plumb the cryostat to the 4.5 K Cryo system.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.01.04
6.06.03.01
The cryostat design shall provide a mating pipe weld stub to connect the cryostat 4.5 K system to the 4.5 K cryogenic distribution system.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.01.05
6.06.03.01
The cryogenics group shall weld and leak check the final pipe connections from the cryostat 4.5 K system to the 4.5 K cryogenic distribution system.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.02.01
6.06.03.01
The magnet design team shall provide the magnet design with adequate position and alignment adjustments for operation.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.02.02
6.06.03.01
The magnet design team shall adjust the magnet at 300 K before cryostat closure to ensure it will settle in its correct position when operational.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.03.01
6.06.03.01
The magnet design team shall specify the power requirement.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.03.02
6.06.03.01
The Power Supply Group shall supply The magnet design team with schematics for all cables and connectors needed to power the magnet and associated equipment (Quench detection/protection).
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.03.03
6.06.03.01
The Power Supply Group shall provide all necessary cables interfaces with the cryostat.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.05.01
6.06.03.01
The Power Supply Group shall provide all necessary cabling to go from the power supply to any quench protection equipment needed for the magnets.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.07.01
6.06.03.01
The magnet design team shall perform electrical testing to verify at room temperature the instrumentation lead connections are capable of meeting operational needs.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.07.02
6.06.03.01
The cryogenics Group shall create schematics showing all the instrumentation to connect the cryostat to the 4.5 K cryo control system.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.07.03
6.06.03.01
The cryogenics Group shall purchase the wire and connectors necessary to connect the cryostat to the 4.5 K cryo control system.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.07.04
6.06.03.01
The cryogenics Group shall install and connect all connections to the cryostat instrumentation, confirm the connections are good and the instrumentation is functioning correctly.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.08.01
6.06.03.01
The magnet design team shall define position and alignment values which will be used to set the 300K position and alignments of the Electron beam pipe.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.10.01
6.06.03.01
The Mechanical Design Group shall provide the support structure design (concrete pedestal) and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet, cables, cryogenic connections to the cryostat.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.10.02
6.06.03.01
The magnet design team shall provide the concrete pedestal specifications.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.10.03
6.06.03.01
The installation team shall provide the concrete pedstal design and install it.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.10.04
6.06.03.01
The magnet design team shall install the cryostat on the support structure.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.10.05
6.06.03.01
The magnet design team shall design the cryostat support which should account for the adjustability of the final position and alignment.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.11.01
6.06.03.01
The Mechanical Design Group shall provide the volume within the tunnel to be occupied by the cryostat. It should identify the location of the cryostat center and its alignment wrt the ESR and ESR beamlines and IP6.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.11.02
6.06.03.01
The magnet design team shall align the cryostat such that the fiducial marks on the cryostat are located wrt the install locations provided by the survey group to ensure the cryostat is aligned.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.11.03
6.06.03.01
The cryostat shall provide a volume to receive the scintillator elements for the detector system.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.12.01
6.06.03.01
The detector group shall align the EMCAL to the cryostat design.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.12.02
6.06.03.01
Changes to the size or position of either the magnet or the HCAL must be coordinated with the other group.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.13.01
6.06.03.01
The magnet design team shall design the cryostat to fit the detector inside.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.13.02
6.06.03.01
The magnet design team shall design the cryostat to allow a minimum of 20 cm free space on the IP-side of the B0 magnet for the installation and access of the detectors.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.13.03
6.06.03.01
The Detector Group shall provide a forward magnet platform to support the detectors, installation tooling, and the associated vacuum valve and bellows.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.14.01
6.06.03.01
The detector group shall provide the cooling requirement, including the peak energy inside the detector the peak temperature without cooling, to the magnet design team for designing the cooling stratagies.
10/22/2025
In Process
FALSE

R-IR-MAG-ESR-Q0eF.15.01
6.06.03.01
The magnet design team shall provide the fringe field map based on the acceptable limit.
10/22/2025
In Process
FALSE

IR-MAG-ESR-Q1EF : IR Magnet Q1EF (WBS 6.06.02.01.01)

P-IR-MAG-ESR-Q1EF.01.01
6.06.05.01
The magnet shall have a single function normal Quadrupole field.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.61(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 63(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 4.47(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-na dy=+/-na dz=+/-na
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- na About Y=+/- na About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 9.7(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 10.67 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.02.03
6.06.05.01
The magnet shall be able to ramp to field within na. Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.03.01
6.06.05.01
The harmonic reference radius Rr shall be 42(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.03.03.01
6.06.05.01
-
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.02
6.06.05.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, Measurement 2: -2 < b5 < 2, Measurement 3: -2 < b5 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.10
6.06.05.01
Measurement 1: -2 < b10 < 2, Measurement 2: -2 < b10 < 2, Measurement 3: -2 < b10 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.04.00
6.06.05.01
The magnet crosstalk onto the HSR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.04.01
6.06.05.01
All non linear multipoles < 10 (uT) within30(mm) of HSR axis
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.04.02
6.06.05.01
the Linear multipoles are < 10(gauss) on the HSR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-Q1ER : IR Magnet Q1ER (WBS 6.06.02.01.01)

P-IR-MAG-ESR-Q1ER.01.01
6.06.05.01
The magnet shall have a single function normal Quadrupole field.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.8(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 41.75(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.067(m) Length less than 2.073(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 25.3(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 27.83 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.03.01
6.06.05.01
The harmonic reference radius Rr shall be 30(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.03.03.01
6.06.05.01
-
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.02
6.06.05.01
Measurement 1: b2= 10000, -1 < a2 < 1 Measurement 2: b2= 10000, -1 < a2 < 1 Measurement 3: b2= 10000, -1 < a2 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.03
6.06.05.01
Measurement 1: -1 < b3 < 1, -1 < a3 < 1 Measurement 2: -1 < b3 < 1, -1 < a3 < 1 Measurement 3: -1 < b3 < 1, -1 < a3 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.04
6.06.05.01
Measurement 1: -1 < b4 < 1, -1 < a4 < 1 Measurement 2: -1 < b4 < 1, -1 < a4 < 1 Measurement 3: -1 < b4 < 1, -1 < a4 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.05
6.06.05.01
Measurement 1: -1 < b5 < 1, -1 < a5 < 1 Measurement 2: -1 < b5 < 1, -1 < a5 < 1 Measurement 3: -1 < b5 < 1, -1 < a5 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.06
6.06.05.01
Measurement 1: -1 < b6 < 1, -1 < a6 < 1 Measurement 2: -1 < b6 < 1, -1 < a6 < 1 Measurement 3: -1 < b6 < 1, -1 < a6 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.07
6.06.05.01
Measurement 1: -1 < b7 < 1, -1 < a7 < 1 Measurement 2: -1 < b7 < 1, -1 < a7 < 1 Measurement 3: -1 < b7 < 1, -1 < a7 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.08
6.06.05.01
Measurement 1: -1 < b8 < 1, -1 < a8 < 1 Measurement 2: -1 < b8 < 1, -1 < a8 < 1 Measurement 3: -1 < b8 < 1, -1 < a8 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.09
6.06.05.01
Measurement 1: -1 < b9 < 1, -1 < a9 < 1 Measurement 2: -1 < b9 < 1, -1 < a9 < 1 Measurement 3: -1 < b9 < 1, -1 < a9 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.10
6.06.05.01
Measurement 1: -1 < b10 < 1, -1 < a10 < 1 Measurement 2: -1 < b10 < 1, -1 < a10 < 1 Measurement 3: -1 < b10 < 1, -1 < a10 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.11
6.06.05.01
Measurement 1: -1 < b11 < 1, -1 < a11 < 1 Measurement 2: -1 < b11 < 1, -1 < a11 < 1 Measurement 3: -1 < b11 < 1, -1 < a11 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.12
6.06.05.01
Measurement 1: -1 < b12 < 1, -1 < a12 < 1 Measurement 2: -1 < b12 < 1, -1 < a12 < 1 Measurement 3: -1 < b12 < 1, -1 < a12 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.13
6.06.05.01
Measurement 1: -1 < b13 < 1, -1 < a13 < 1 Measurement 2: -1 < b13 < 1, -1 < a13 < 1 Measurement 3: -1 < b13 < 1, -1 < a13 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.14
6.06.05.01
Measurement 1: -1 < b14 < 1, -1 < a14 < 1 Measurement 2: -1 < b14 < 1, -1 < a14 < 1 Measurement 3: -1 < b14 < 1,-1 < a14 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.15
6.06.05.01
Measurement 1: -1 < b15 < 1, -1 < a15 < 1 Measurement 2: -1 < b15 < 1, -1 < a15 < 1 Measurement 3: -1 < b15 < 1, -1 < a15 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.03.03.16
6.06.05.01
Measurement 1: -1 < b16 < 1, -1 < a16 < 1 Measurement 2: -1 < b16 < 1, -1 < a16 < 1 Measurement 3: -1 < b16 < 1, -1 < a16 < 1
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.04.00
6.06.05.01
The magnet crosstalk onto the HSR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.04.01
6.06.05.01
All non linear multipoles < 200 (uT) within 18(mm) of HSR axis
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.04.02
6.06.05.01
there are no linear cross talk requirements
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions in a saturated bath at 4.55K (1.35bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using vapor from the saturated bath at 4.55K (1.35bar)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.03
6.06.05.01
The magnet shall be capable of removing the maximum total heat load of TBD (W) while maintaining nominal operating conditions in the saturated bath at 4.55K ( 1.35bar)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of TBD 1(W) at the cold end while maintaining nominal operating conditions in the saturated bath at 4.55K (1.35bar) Assuming 100(A) leads, and lead cooling flows required are as follows: For currents below 10(A) The cooling flow is 0.028(g/s) For currents up to 10 (A), The cooling flow increases by 0.000031 (g/s)/(A) up to the peak current ~100(A). Maximum flow of ~ 0.031(g/s) Maximum flow of ~ 0.028(g/s)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5 days using warm gas flow.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ) at 4.55 (K).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1ER.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-Q2ER : IR Magnet Q2ER (WBS 6.06.02.01.01)

P-IR-MAG-ESR-Q2ER.01.01
6.06.05.01
The magnet shall have a single function normal Quadrupole field
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.6 (m). The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number [EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.01.09
6.06.05.01
The inner beam tube bore radius, when warm, shall be greater than or equal to 47.5(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number [EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-2) should be designed to fit within a cylindrical volume having an Outside diameter less than 1.37 (m) Length less than 1.65 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 mm dy=+/-0.15 mm dz=+/-0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/-0.3 mrad About Y=+/-0.3 mrad About Z=+/-0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.02.02
6.06.05.01
The integrated Quadrupole field required is 20(T), the magnet design shall include an additional 10% tuning margin giving a maximum required field of 22 (T).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.02.03
6.06.05.01
The magnet has no operational ramp rate requirement.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.02.07.01.00
6.06.05.01
The magnet is in a common coldmass and cryostat with the Q1bpR magnets it utilizes the position and alignment requirements presented there [7.8].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.02.07.01.01
6.06.05.01
See the Q1bPR magnet cryostat position requirments
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.02.07.01.02
6.06.05.01
See the Q1bPR magnet cryostat alignment requirments
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.01
6.06.05.01
The harmonic reference radius Rr shall be 32(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03
6.06.05.01
The magnet bore field SHALL have the following multipole content. Notes: The units are specified in parts of 10-4 of the main components..
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.01
6.06.05.01
na
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.02
6.06.05.01
Measurement 1: b2= 10000, -1 < a2 < 1 Measurement 2: b2= 10000, -1 < a2 < 1 Measurement 3: b2= 10000, -1 < a2 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.03
6.06.05.01
Measurement 1: -1 < b3 < 1, -1 < a3 < 1 Measurement 2: -1 < b3 < 1, -1 < a3 < 1 Measurement 3: -1 < b3 < 1, -1 < a3 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.04
6.06.05.01
Measurement 1: -1 < b4 < 1, -1 < a4 < 1 Measurement 2: -1 < b4 < 1, -1 < a4 < 1 Measurement 3: -1 < b4 < 1, -1 < a4 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.05
6.06.05.01
Measurement 1: -1 < b5 < 1, -1 < a5 < 1 Measurement 2: -1 < b5 < 1, -1 < a5 < 1 Measurement 3: -1 < b5 < 1, -1 < a5 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.06
6.06.05.01
Measurement 1: -1 < b6 < 1, -1 < a6 < 1 Measurement 2: -1 < b6 < 1, -1 < a6 < 1 Measurement 3: -1 < b6 < 1, -1 < a6 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.07
6.06.05.01
Measurement 1: -1 < b7 < 1, -1 < a7 < 1 Measurement 2: -1 < b7 < 1, -1 < a7 < 1 Measurement 3: -1 < b7 < 1, -1 < a7 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.08
6.06.05.01
Measurement 1: -1 < b8 < 1, -1 < a8 < 1 Measurement 2: -1 < b8 < 1, -1 < a8 < 1 Measurement 3: -1 < b8 < 1, -1 < a8 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.09
6.06.05.01
Measurement 1: -1 < b9 < 1, -1 < a9 < 1 Measurement 2: -1 < b9 < 1, -1 < a9 < 1 Measurement 3: -1 < b9 < 1, -1 < a9 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.10
6.06.05.01
Measurement 1: -1 < b10 < 1, -1 < a10 < 1 Measurement 2: -1 < b10 < 1, -1 < a10 < 1 Measurement 3: -1 < b10 < 1, -1 < a10 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.11
6.06.05.01
Measurement 1: -1 < b11 < 1, -1 < a11 < 1 Measurement 2: -1 < b11 < 1, -1 < a11 < 1 Measurement 3: -1 < b11 < 1, -1 < a11 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.12
6.06.05.01
Measurement 1: -1 < b12 < 1, -1 < a12 < 1 Measurement 2: -1 < b12 < 1, -1 < a12 < 1 Measurement 3: -1 < b12 < 1, -1 < a12 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.13
6.06.05.01
Measurement 1: -1 < b13 < 1, -1 < a13 < 1 Measurement 2: -1 < b13 < 1, -1 < a13 < 1 Measurement 3: -1 < b13 < 1, -1 < a13 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.14
6.06.05.01
Measurement 1: -1 < b14 < 1, -1 < a14 < 1 Measurement 2: -1 < b14 < 1, -1 < a14 < 1 Measurement 3: -1 < b14 < 1, -1 < a14 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.15
6.06.05.01
Measurement 1: -1 < b15 < 1, -1 < a15 < 1 Measurement 2: -1 < b15 < 1, -1 < a15 < 1 Measurement 3: -1 < b15 < 1, -1 < a15 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.03.03.16
6.06.05.01
Measurement 1: -1 < b16 < 1, -1 < a16 < 1 Measurement 2: -1 < b16 < 1, -1 < a16 < 1 Measurement 3: -1 < b16 < 1, -1 < a16 < 1
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.04.00
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 21(mm) of the HSR axis such that all nonlinear harmonic multipoles are less than <200(µT)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.04.01
6.06.05.01
There are no linear cross-talk multipole requirements. The associated correctors shall have sufficient capacity to correct for these as needed.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.05.01
6.06.05.01
Currently the magnet has no radial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.05.02
6.06.05.01
Currently the magnet has no axial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 (g/s), and pressure between 3.5(bar) and 4(bar), and at a temperature below 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using supercritical helium between 3.5(bar) and 4(bar), and at a temperature of less than 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 1TBD(W) while maintaining nominal operating conditions with supercritical helium between 3.5(bar) and 4(bar), and at a temperature of less than 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of 1(W) at the cold end while maintaining nominal operating conditions between 3.5(bar) and 4(bar) and below 4.7(K), and lead cooling flow of: Assuming 1(kA) leads, and lead cooling flows required are as follows: For currents below 50(A) · The cooling flow is 0.014 (g/s) For currents up to 50 A, · The cooling flow increases by 0.000031 (g/s)/(A) · Up to the peak current ~500(A). Maximum flow of ~ 0.028(g/s)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 (bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5 days using warm gas flow.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ) at 4.7 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: · 60 thermal cycles, · 180 quenches. 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q2ER.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q2ER.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q2ER.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-LSR : IR Magnet LONG_S (WBS 6.06.02.02)

P-IR-MAG-ESR-LSR.01.01
6.06.05.01
The magnet shall be a single function solenoid with the solenoid field direction aligned along the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.01.06
6.06.05.01
The physical length of the magnet cryostat shall be less than or equal to 6.2 (m).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.01.09
6.06.05.01
The magnet inner beam stay clear radius shall be greater than or equal to TBD (mm).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.01.11.01
6.06.05.01
The magnet cryostat shall be designed to fit within a cylindrical volume having an outside diameter less than 1.2 (m) and length less than 6.2 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.01.11.01.00
6.06.06.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
09/25/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.01.01
6.06.06.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position +/-TBD in X +/-TBD in Y Not Applicable in Z
09/25/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.01.02
6.06.06.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis +/-TBD around X +/-TBD around Y Rotational about Z is not applicable
09/25/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.02.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.01.11.02.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position +/-TBD in X +/-TBD in Y Not Applicable in Z
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.02.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis +/-TBD around X +/-TBD around Y Rotational about Z is not applicable
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.02.01
6.06.05.01
The magnets maximum integrated field required is 46.70 (Tm), the magnet design shall include an additional 0.1% tuning margin giving a design field of (46.75) (Tm).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.02.07.01.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat with can locate the field within the following tolerance limits:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.02.07.01.01
6.06.05.01
The magnetic field axis displacement tolerances: +/-TBD in X +/-TBD in Y Not Applicable in Z
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.02.07.01.02
6.06.05.01
The magnetic field rotational alignment tolerances: +/-TBD around x +/-TBD around y Rotational about Z is not applicable
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.02.08
6.06.05.01
The magnet needs to have a switchable polarity allowing it to deliver a solenoid field in either direction.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.03.00
6.06.05.01
The magnet field homogenity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.03.01
6.06.05.01
The integral field shall be measured within a cylindrical volume centered on the magnet axis having a radius of Rr of 33(mm), a length of TBD(m).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.03.02
6.06.05.01
The field (Bref) shall be measured at the magnets nominal field value.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.03.03
6.06.05.01
The magnet field variability |dB|/|B| within the measured volume shall not exceed TBD%
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.03.04
6.06.06.01
The Solenoid field shall be straight to within +/-TBD(Units=TBD)
09/25/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.03.04.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.04.00
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 100(µT).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.05.00
6.06.05.01
The magnet shall be desuigned to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.05.01
6.06.05.01
The magnet shall have a stray field of no more than 10 gauss at a radial distance of 1 (m) from the solenoid axis.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.05.02
6.06.05.01
The stray field from the magnet of shall not exceed TBD gauss for axial distances greater than .55(m) from the end plane of the magnet cryostat.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 7 (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.04
6.06.05.01
The magnet 2kA current leads pair cooling shall be capable of removing a maximum total heat load of 4.8 (W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of less than 0.24(g/s) from 4.5(K) to 300(K)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.6(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03 (bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.06.09
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-LSR.09.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.10.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-LSR.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-SSR : IR Magnet SHORT_S (WBS 6.06.02.02)

P-IR-MAG-ESR-SSR.01.01
6.06.05.01
The magnet shall be a single function solenoid with the solenoid field direction aligned along the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.01.06
6.06.05.01
The physical length of the magnet cryostat shall be less than or equal to 2.5 (m).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.01.09
6.06.05.01
The magnet inner beam stay clear radius shall be greater than or equal to TBD (mm).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.01.11.01
6.06.05.01
The magnet cryostat shall be designed to fit within a cylindrical volume having an outside diameter less than 1.2 (m) and length less than 2.5 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.01.11.01.00
6.06.02.02
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
05/16/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.01.01
6.06.02.02
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position +/-TBD in X +/-TBD in Y Not Applicable in Z
05/16/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.01.02
6.06.02.02
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis +/-TBD around X +/-TBD around Y Rotational about Z is not applicable
05/16/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.02.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.01.11.02.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position +/-TBD in X +/-TBD in Y Not Applicable in Z
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.02.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis +/-TBD around X +/-TBD around Y Rotational about Z is not applicable
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.02.01
6.06.05.01
The magnets maximum integrated field required is 14.84 (Tm), the magnet design shall include an additional 4% tuning margin giving a design field of 15.43 (Tm).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.02.07.01.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat with can locate the field within the following tolerance limits:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.02.07.01.01
6.06.05.01
The magnetic field axis displacement tolerances: +/-TBD in X +/-TBD in Y Not Applicable in Z
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.02.07.01.02
6.06.05.01
The magnetic field rotational alignment tolerances: +/-TBD around x +/-TBD around y Rotational about Z is not applicable
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.02.07.02.00
6.06.02.02
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat with can locate the field within the following tolerance limits:
05/16/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.07.02.01
6.06.02.02
The magnetic field axis displacement tolerances: +/-TBD in X +/-TBD in Y Not Applicable in Z
05/16/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.07.02.02
6.06.02.02
The magnetic field rotational alignment tolerances: +/-TBD around x +/-TBD around y Rotational about Z is not applicable
05/16/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.08
6.06.05.01
The magnet needs to have a switchable polarity allowing it to deliver a solenoid field in either direction.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.03.00
6.06.05.01
The magnet field homogenity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.03.01
6.06.05.01
The integral field shall be measured within a cylindrical volume centered on the magnet axis having a radius of Rr of 33(mm), a length of TBD(m).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.03.02
6.06.05.01
The field (Bref) shall be measured at the magnets nominal field value.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.03.03
6.06.05.01
The magnet field variability |dB|/|B| within the measured volume shall not exceed TBD%
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.03.04
6.06.02.02
The Solenoid field shall be straight to within +/-TBD(Units=TBD)
05/16/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.03.04.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.04.00
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 100(µT).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.05.00
6.06.05.01
The magnet shall be desuigned to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.05.01
6.06.05.01
The magnet shall have a stray field of no more than 10 gauss at a radial distance of 1 (m) from the solenoid axis.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.05.02
6.06.05.01
The stray field from the magnet of shall not exceed TBD gauss for axial distances greater than .55(m) from the end plane of the magnet cryostat.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 7 (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.04
6.06.05.01
The magnet 2kA current leads pair cooling shall be capable of removing a maximum total heat load of 4.8 (W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of less than 0.24(g/s) from 4.5(K) to 300(K)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.6(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03 (bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.06.09
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-SSR.09.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.10.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-SSR.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-B2ER_VC

P-IR-MAG-ESR-B2ER_VC.01.01
6.06.05.01
The magnet shall have a single function vertical corrector with a horizontal dipole field.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 4.5(m). The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.01.09
6.06.05.01
The beam tube inner clear bore radius when warm, shall be greater than or equal to 47.5(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius(To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-3) should be designed to fit within a cylindrical volume having an Outside diameter less than 1.68(m) Length less than 5.06(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-na mm dy=+/-na mm dz=+/-na mm
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/-na mrad About Y=+/-na mrad About Z=+/-1 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.02.02
6.06.05.01
The maximum integrated Dipole field required is 0.05(Tm), the magnet design shall include an additional 20% tuning margin giving a required field of 0.06 (Tm).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.02.07.01.00
6.06.05.01
The magnet is in a common coldmass and cryostat with the Q2pR magnets it utilizes the position and alignment requirements presented there [7.8].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.02.07.01.01
6.06.05.01
See the Q2pR magnet cryostat position requirments
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.02.07.01.02
6.06.05.01
See the Q2pR magnet cryostat alignment requirments
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.01
6.06.05.01
The harmonic reference radius Rr shall be 35(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energization levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.01
6.06.05.01
Measurement 1: -10 < b1 < 10, a1= 10000 Measurement 2: -10 < b1 < 10, a1= 10000 Measurement 3: -10 < b1 < 10, a1= 10000
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.02
6.06.05.01
Measurement 1: -10 < b2 < 10, -10 < a2 < 10, Measurement 2: -10 < b2 < 10, -10 < a2 < 10 Measurement 3: -10 < b2 < 10, -10 < a2 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.03
6.06.05.01
Measurement 1: -10 < b3 < 10, -10 < a3 < 10 Measurement 2: -10 < b3 < 10, -10 < a3 < 10 Measurement 3: -10 < b3 < 10, -10 < a3 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.04
6.06.05.01
Measurement 1: -10 < b4 < 10, -10 < a4 < 10 Measurement 2: -10 < b4 < 10, -10 < a4 < 10 Measurement 3: -10 < b4 < 10, -10 < a4 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.05
6.06.05.01
Measurement 1: -10 < b5 < 10, -10 < a5 < 10 Measurement 2: -10 < b5 < 10, -10 < a5 < 10 Measurement 3: -10 < b5 < 10, -10 < a5 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.06
6.06.05.01
Measurement 1: -10 < b6 < 10, -10 < a6 < 10 Measurement 2: -10 < b6 < 10, -10 < a6 < 10 Measurement 3: -10 < b6 < 10, -10 < a6 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.07
6.06.05.01
Measurement 1: -10 < b7 < 10, -10 < a7 < 10 Measurement 2: -10 < b7 < 10, -10 < a7 < 10 Measurement 3: -10 < b7 < 10, -10 < a7 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.08
6.06.05.01
Measurement 1: -10 < b8 < 10, -10 < a8 < 10 Measurement 2: -10 < b8 < 10, -10 < a8 < 10 Measurement 3: -10 < b8 < 10, -10 < a8 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.09
6.06.05.01
Measurement 1: -10 < b9 < 10, -10 < a9 < 10 Measurement 2: -10 < b9 < 10, -10 < a9 < 10 Measurement 3: -10 < b9 < 10, -10 < a9 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.10
6.06.05.01
Measurement 1: -10 < b10 < 10, -10 < a10 < 10 Measurement 2: -10 < b10 < 10, -10 < a10 < 10 Measurement 3: -10 < b10 < 10, -10 < a10 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.11
6.06.05.01
Measurement 1: -10 < b11 < 10, -10 < a11 < 10 Measurement 2: -10 < b11 < 10, -10 < a11 < 10 Measurement 3: -10 < b11 < 10, -10 < a11 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.12
6.06.05.01
Measurement 1: -10 < b12 < 10, -10 < a12 < 10 Measurement 2: -10 < b12 < 10, -10 < a12 < 10 Measurement 3: -10 < b12 < 10, -10 < a12 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.13
6.06.05.01
Measurement 1: -10 < b13 < 10, -10 < a13 < 10 Measurement 2: -10 < b13 < 10, -10 < a13 < 10 Measurement 3: -10 < b13 < 10, -10 < a13 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.14
6.06.05.01
Measurement 1: -10 < b14 < 10, -10 < a14 < 10 Measurement 2: -10 < b14 < 10, -10 < a14 < 10 Measurement 3: -10 < b14 < 10, -10 < a14 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.15
6.06.05.01
Measurement 1: -10 < b15 < 10, -10 < a15 < 10 Measurement 2: -10 < b15 < 10, -10 < a15 < 10 Measurement 3: -10 < b15 < 10, -10 < a15 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.03.03.16
6.06.05.01
Measurement 1: -10 < b16 < 10, -10 < a16 < 10 Measurement 2: -10 < b16 < 10, -10 < a16 < 10 Measurement 3: -10 < b16 < 10, -10 < a16 < 10
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.04.00
6.06.05.01
The magnet crosstalk onto the HSR beam line Shall be constrained such that
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.04.01
6.06.05.01
The magnet currently has no non linear multiple crosstalk requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.04.02
6.06.05.01
The magnet currently has no linear multipole crosstalk requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.05.01
6.06.05.01
The magnet has no radial fringe field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.05.02
6.06.05.01
The magnet has no axial fringe field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions in a saturated bath at 4.55K (1.35bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using vapor from the saturated bath at 4.55K (1.35bar)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.03
6.06.05.01
The magnet shall be capable of removing the maximum total heat load of TBD 1(W) while maintaining nominal operating conditions in the saturated bath at 4.55K ( 1.35bar) .
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of TBD 1(W) at the cold end while maintaining nominal operating conditions in the saturated bath at 4.55K (1.35bar) Assuming 100(A) leads, and lead cooling flows required are as follows: For currents below 10(A) The cooling flow is 0.028(g/s) For currents up to 10 (A), The cooling flow increases by 0.000031 (g/s)/(A) up to the peak current ~100(A). Maximum flow of ~ 0.031(g/s)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.06.09
6.06.05.01
The magnet shall be able to warm up from its operational temperature to 300K within 5days. Using warm gas flow.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ) at 4.55 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: · 60 thermal cycles, · 180 quenches. 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see in operation will need further analysis and will need to be confirmed by the EIC radiation physics team
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-B2ER_VC.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-B2ER_VC.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-B2ER_VC.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-B2ER_VC.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-DETSOL : ESR Detector Selinoid

IR-MAG-ESR-Q0EF_HC

P-IR-MAG-ESR-Q0EF_HC.01.01
TBD
The magnet shall have a single function horizontal corrector with a vertical dipole field
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.01.06
TBD
The physical length of the magnet cold mass insert shall be less than or equal to 1.27(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.01.09
TBD
The beam tube inner bore radius when warm, shall be greater than or equal to 28.5(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.01.11.00
TBD
The magnet shall be designed to fit within the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.01.11.01
TBD
The magnet and its cryostat (designated B0PF) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.829(m) Length less than 1.684(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.01.11.02.00
TBD
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.01.11.02.01
TBD
The magnetic field axis displacement tolerances: dx=+/-na dy=+/-na dz=+/-na
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.01.11.02.02
TBD
The magnetic field rotational alignment tolerances: About X=+/- na About Y=+/- na About Z=+/- 0.2
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.02.02
TBD
The maximum integrated Quadrupole field required is TBD (Tm), the magnet design shall include an additional 20% tuning margin giving a required field of TBD (Tm).
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.02.07.01.00
TBD
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.02.07.01.01
TBD
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.02.07.01.02
TBD
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.00
TBD
The magnet field homogeneity shall be measured within the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.01
TBD
The harmonic reference radius Rr shall be 18(mm), centered at (x=0,y=0) mm with respect to the beam axis.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.02
TBD
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03
TBD
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.01
TBD
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.02
TBD
Measurement 1: -100 < b2 < +100, Measurement 2: -100 < b2 < +100, Measurement 3: -100 < b2 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.03
TBD
Measurement 1: -100 < b3 < +100, Measurement 2: -100 < b3 < +100, Measurement 3: -100 < b3 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.04
TBD
Measurement 1: -100 < b4 < +100, Measurement 2: -100 < b4 < +100, Measurement 3: -100 < b4 < +100,
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.05
TBD
Measurement 1: -100 < b5 < +100, Measurement 2: -100 < b5 < +100, Measurement 3: -100 < b5 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.06
TBD
Measurement 1: -100 < b6 < +100, Measurement 2: -100 < b6 < +100, Measurement 3: -100 < b6 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.07
TBD
Measurement 1: -100 < b7 < +100, Measurement 2: -100 < b7 < +100, Measurement 3: -100 < b7 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.08
TBD
Measurement 1: -100 < b8 < +100, Measurement 2: -100 < b8 < +100, Measurement 3: -100 < b8 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.09
TBD
Measurement 1: -100 < b9 < +100, Measurement 2: -100 < b9 < +100, Measurement 3: -100 < b9 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.10
TBD
Measurement 1: -100 < b10 < +100, Measurement 2: -100 < b10 < +100, Measurement 3: -100 < b10 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.11
TBD
Measurement 1: -100 < b11 < +100, Measurement 2: -100 < b11 < +100, Measurement 3: -100 < b11 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.12
TBD
Measurement 1: -100 < b12 < +100, Measurement 2: -100 < b12 < +100, Measurement 3: -100 < b12 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.13
TBD
Measurement 1: -100 < b13 < +100, Measurement 2: -100 < b13 < +100, Measurement 3: -100 < b13 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.14
TBD
Measurement 1: -100 < b14 < +100, Measurement 2: -100 < b14 < +100, Measurement 3: -100 < b14 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.15
TBD
Measurement 1: -100 < b15 < +100, Measurement 2: -100 < b15 < +100, Measurement 3: -100 < b15 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.03.03.16
TBD
Measurement 1: -100 < b16 < +100, Measurement 2: -100 < b16 < +100, Measurement 3: -100 < b16 < +100
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.04.00
TBD
The magnet crosstalk onto the HSR beam line Shall be constrained such that
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.04.01
TBD
The harmonic multipoles from residual field in the HSR beam pipe shall be constrained such that B1 and B2 no requirements B3 to B16 < +/- 3(Gauss.m)
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.04.02
TBD
There are no constraints on the residual field in the HSR beam pipe from the B1 component
10/30/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF_HC.05.00
TBD
The magnet shall be designed to meet the following external fringe field constraints
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.05.01
TBD
The magnet has no radial fringe field requirments.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.05.02
TBD
The magnet has no axial fringe field requirments.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.00
TBD
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.01
TBD
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 (g/s), and pressure between 3.5(bar) and 4(bar), and at a temperature below 4.7(K).
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.02
TBD
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using supercritical helium between 3.5 (bar) and 4 (bar), and at a temperature of less than 4.7(K). .
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.03
TBD
The magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions with supercritical helium between 3.5(bar) and 4(bar), and at a temperature of less than 4.7(K).
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.04
TBD
The magnet current leads cooling shall be capable of removing a maximum total heat load each of TBD(W) at the cold end while maintaining nominal operating conditions between 3.5(bar) and 4(bar) and below 4.7(K). Assuming 1(kA) leads, and lead cooling flows required are as follows: For currents below 50(A) The cooling flow is 0.014 (g/s) For currents up to 50 (A), The cooling flow increases by 0.000031(g/s)/(A) Upto the peak current ~500(A). Maximum flow of ~ 0.028(g/s)
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.05
TBD
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8(bar).
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.06
TBD
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.07
TBD
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.08
TBD
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.06.09
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.07.00
TBD
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.07.01
TBD
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.07.02
TBD
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.07.03
TBD
The magnet shall be designed to attain the design field with no more than 20 training quenches.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.08.00
TBD
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.08.01
TBD
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.08.02
TBD
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.08.03
TBD
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
10/30/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.09.00
TBD
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
11/05/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF_HC.10.00
TBD
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
10/30/2025
In Process
FALSE

IR-MAG-ESR-Q1EF_SKQ

P-IR-MAG-ESR-Q1EF_SKQ.01.01
6.06.05.01
The magnet shall have a single function corrector with a skew quadrupole field
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 3.8(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 63(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-2) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 3.865(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 1.6(T), the magnet design shall include an additional 20% tuning margin giving a required field of 1.92 (T).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.02.03
6.06.05.01
The magnet shall be able to ramp to field within na. Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.01
6.06.05.01
The harmonic reference radius Rr shall be 43(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.01
6.06.05.01
Measurement 1: -10 < b1 < 10, a1= 10 Measurement 2: -10 < b1 < 10, a1= 10 Measurement 3: -10 < b1 < 10. a1= 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.02
6.06.05.01
Measurement 1: -10 < b2 < 10, a2 = 10000 Measurement 2: -10 < b2 < 10, a2 = 10000 Measurement 3: -10 < b2 < 10, a2 = 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.03
6.06.05.01
Measurement 1: -10 < b2 < 10, -10 < a2 < 10 Measurement 2: -10 < b2 < 10, -10 < a2 < 10 Measurement 3: -10 < b2 < 10, -10 < a2 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.04
6.06.05.01
Measurement 1: -10 < b4 < 10, -10 < a4 < 10 Measurement 2: -10 < b4 < 10, -10 < a4 < 10 Measurement 3: -10 < b4 < 10, -10 < a4 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.05
6.06.05.01
Measurement 1: -10 < b5 < 10, -10 < a5 < 10 Measurement 2: -10 < b5 < 10, -10 < a5 < 10 Measurement 3: -10 < b5 < 10, -10 < a5 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.06
6.06.05.01
Measurement 1: -10 < b6 < 10, -10 < a6 < 10 Measurement 2: -10 < b6 < 10, -10 < a6 < 10 Measurement 3: -10 < b6 < 10, -10 < a6 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.07
6.06.05.01
Measurement 1: -10 < b7 < 10, -10 < a7 < 10 Measurement 2: -10 < b7 < 10, -10 < a7 < 10 Measurement 3: -10 < b7 < 10, -10 < a7 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.08
6.06.05.01
Measurement 1: -10 < b8 < 10, -10 < a8 < 10 Measurement 2: -10 < b8 < 10, -10 < a8 < 10 Measurement 3: -10 < b8 < 10, -10 < a8 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.09
6.06.05.01
Measurement 1: -10 < b9 < 10, -10 < a9 < 10 Measurement 2: -10 < b9 < 10, -10 < a9 < 10 Measurement 3: -10 < b9 < 10, -10 < a9 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.10
6.06.05.01
Measurement 1: -10 < b10 < 10, -10 < a10 < 10 Measurement 2: -10 < b10 < 10, -10 < a10 < 10 Measurement 3: -10 < b10 < 10, -10 < a10 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.11
6.06.05.01
Measurement 1: -10 < b11 < 10, -10 < a11 < 10 Measurement 2: -10 < b11 < 10, -10 < a11 < 10 Measurement 3: -10 < b11 < 10, -10 < a11 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.12
6.06.05.01
Measurement 1: -10 < b12 < 10, -10 < a12 < 10 Measurement 2: -10 < b12 < 10, -10 < a12 < 10 Measurement 3: -10 < b12 < 10, -10 < a12 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.13
6.06.05.01
Measurement 1: -10 < b13 < 10, -10 < a13 < 10 Measurement 2: -10 < b13 < 10, -10 < a13 < 10 Measurement 3: -10 < b13 < 10, -10 < a13 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.14
6.06.05.01
Measurement 1: -10 < b14 < 10, -10 < a14 < 10 Measurement 2: -10 < b14 < 10, -10 < a14 < 10 Measurement 3: -10 < b14 < 10,-10 < a14 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.15
6.06.05.01
Measurement 1: -10 < b15 < 10, -10 < a15 < 10 Measurement 2: -10 < b15 < 10, -10 < a15 < 10 Measurement 3: -10 < b15 < 10, -10 < a15 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.03.03.16
6.06.05.01
Measurement 1: -10 < b16 < 10, -10 < a16 < 10 Measurement 2: -10 < b16 < 10, -10 < a16 < 10 Measurement 3: -10 < b16 < 10, -10 < a16 < 10
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.04.00
6.06.05.01
The magnet crosstalk onto the HSR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.04.01
6.06.05.01
Non linear multipoles < 200 (uT) within 43(mm) of HSR axis
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.04.02
6.06.05.01
There are no Linear cross talk requirements onto the HSR.
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: • 60 thermal cycles, • 180 quenches • 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_SKQ.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-Q1EF_VC

P-IR-MAG-ESR-Q1EF_VC.01.01
6.06.05.01
The magnet shall have a single function vertical corrector with a horizontal dipole field
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 3.8(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 63(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-2) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 3.865(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.02.02
6.06.05.01
The maximum integrated Dipole field required is 0.05(Tm), the magnet design shall include an additional 20% tuning margin giving a required field of 0.06 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.02.03
6.06.05.01
The magnet shall be able to ramp to field within na. Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.01
6.06.05.01
The harmonic reference radius Rr shall be 43(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.01
6.06.05.01
Measurement 1: -2 < b1 < 2, a1= 10000 Measurement 2: -2 < b1 < 2, a1= 10000 Measurement 3: -2 < b1 < 2. a1= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.02
6.06.05.01
Measurement 1: -2 < b2 < 2, -2 < a2 < 2 Measurement 2: -2 < b2 < 2, -2 < a2 < 2 Measurement 3: -2 < b2 < 2, -2 < a2 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.03
6.06.05.01
Measurement 1: -2 < b2 < 2, -2 < a2 < 2 Measurement 2: -2 < b2 < 2, -2 < a2 < 2 Measurement 3: -2 < b2 < 2, -2 < a2 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, -2 < a4 < 2 Measurement 2: -2 < b4 < 2, -2 < a4 < 2 Measurement 3: -2 < b4 < 2, -2 < a4 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, -2 < a5 < 2 Measurement 2: -2 < b5 < 2, -2 < a5 < 2 Measurement 3: -2 < b5 < 2, -2 < a5 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, -2 < a6 < 2 Measurement 2: -2 < b6 < 2, -2 < a6 < 2 Measurement 3: -2 < b6 < 2, -2 < a6 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, -2 < a7 < 2 Measurement 2: -2 < b7 < 2, -2 < a7 < 2 Measurement 3: -2 < b7 < 2, -2 < a7 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, -2 < a8 < 2 Measurement 2: -2 < b8 < 2, -2 < a8 < 2 Measurement 3: -2 < b8 < 2, -2 < a8 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, -2 < a9 < 2 Measurement 2: -2 < b9 < 2, -2 < a9 < 2 Measurement 3: -2 < b9 < 2, -2 < a9 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.10
6.06.05.01
Measurement 1: -2 < b2 < 2, -2 < a2 < 2 Measurement 2: -2 < b2 < 2, -2 < a2 < 2 Measurement 3: -2 < b2 < 2, -2 < a2 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, -2 < a11 < 2 Measurement 2: -2 < b11 < 2, -2 < a11 < 2 Measurement 3: -2 < b11 < 2, -2 < a11 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, -2 < a12 < 2 Measurement 2: -2 < b12 < 2, -2 < a12 < 2 Measurement 3: -2 < b12 < 2, -2 < a12 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, -2 < a13 < 2 Measurement 2: -2 < b13 < 2, -2 < a13 < 2 Measurement 3: -2 < b13 < 2, -2 < a13 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, -2 < a14 < 2 Measurement 2: -2 < b14 < 2, -2 < a14 < 2 Measurement 3: -2 < b14 < 2,-2 < a14 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, -2 < a15 < 2 Measurement 2: -2 < b15 < 2, -2 < a15 < 2 Measurement 3: -2 < b15 < 2, -2 < a15 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, -2 < a16 < 2 Measurement 2: -2 < b16 < 2, -2 < a16 < 2 Measurement 3: -2 < b16 < 2, -2 < a16 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.04.00
6.06.05.01
The magnet crosstalk onto the HSR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.04.01
6.06.05.01
Non linear multipoles < 200 (uT) within 43(mm) of HSR axis
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.04.02
6.06.05.01
There are no Linear cross talk requirements onto the HSR.
02/09/2026
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF_VC.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: • 60 thermal cycles, • 180 quenches • 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q1EF_VC.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-ESR-Q1ER_SKQ

IR-MAG-ESR-Q2ER_SKQ

P-IR-MAG-ESR-Q2ER_SKQ.01.01
6.06.05.01
The magnet shall have a single function Skew Quadrupole field.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.6 (m). The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number [EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.01.09
6.06.05.01
The inner beam tube bore radius when warm, shall be greater than or equal to 47.5(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number [EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-2) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.37 (m) Length less than 1.65 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 mm dy=+/-0.15 mm dz=+/-0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/-0.3 mrad About Y=+/-0.3 mard About Z=+/-0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.02.02
6.06.05.01
The integrated Quadrupole field required is 1.6(T), the magnet design shall include an additional 20% tuning margin giving a maximum operating field of 1.92 (T).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.02.03
6.06.05.01
The magnet has no operational a peak ramp rate requirement.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits:(Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 0.2 mm dy=+/- 0.2 mm dz=+/- 0.2 mm
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 mrad About Y=+/- 0.3 mrad About Z=+/- 0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.01
6.06.05.01
The harmonic reference radius Rr shall be 32(mm), centered at (x=0, y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 5GeV Measurement 2: Design field for 10GeV Measurement 3: Design field for 18GeV
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03
6.06.05.01
The magnet bore field SHALL have the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.01
6.06.05.01
-
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.02
6.06.05.01
Measurement 1: -25 < b2 < 25, a2= 10000, Measurement 2: -25 < b2 < 25, a2= 10000, Measurement 3: -25 < b2 < 25, a2= 10000,
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.03
6.06.05.01
Measurement 1: -25 < b3 < 25, -25 < a3 < 25, Measurement 2: -25 < b3 < 25, -25 < a3 < 25, Measurement 3: -25 < b3 < 25, -25 < a3 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.04
6.06.05.01
Measurement 1: -25 < b4 < 25, -25 < a4 < 25, Measurement 2: -25 < b4 < 25, -25 < a4 < 25, Measurement 3: -25 < b4 < 25, -25 < a4 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.05
6.06.05.01
Measurement 1: -25 < b5 < 25, -25 < a5 < 25, Measurement 2: -25 < b5 < 25, -25 < a5 < 25, Measurement 3: -25 < b5 < 25, -25 < a5 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.06
6.06.05.01
Measurement 1: -25 < b6 < 25, -25 < a6 < 25, Measurement 2: -25 < b6 < 25, -25 < a6 < 25, Measurement 3: -25 < b6 < 25, -25 < a6 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.07
6.06.05.01
Measurement 1: -25 < b7 < 25, -25 < a7 < 25, Measurement 2: -25 < b7 < 25, -25 < a7 < 25, Measurement 3: -25 < b7 < 25, -25 < a7 < 25,
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.08
6.06.05.01
Measurement 1: -25 < b8 < 25, -25 < a8 < 25 Measurement 2: -25 < b8 < 25, -25 < a8 < 25 Measurement 3: -25 < b8 < 25, -25 < a8 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.09
6.06.05.01
Measurement 1: -25 < b9 < 25, -25 < a9 < 25 Measurement 2: -25 < b9 < 25, -25 < a9 < 25 Measurement 3: -25 < b9 < 25, -25 < a9 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.10
6.06.05.01
Measurement 1: -25 < b10 < 25, -25 < a10 < 25 Measurement 2: -25 < b10 < 25, -25 < a10 < 25 Measurement 3: -25 < b10 < 25, -25 < a10 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.11
6.06.05.01
Measurement 1: -25 < b11 < 25, -25 < a11 < 25 Measurement 2: -25 < b11 < 25, -25 < a11 < 25 Measurement 3: -25 < b11 < 25, -25 < a11 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.12
6.06.05.01
Measurement 1: -25 < b12 < 25, -25 < a12 < 25 Measurement 2: -25 < b12 < 25, -25 < a12 < 25 Measurement 3: -25 < b12 < 25, -25 < a12 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.13
6.06.05.01
Measurement 1: -25 < b13 < 25, -25 < a13 < 25 Measurement 2: -25 < b13 < 25, -25 < a13 < 25 Measurement 3: -25 < b13 < 25, -25 < a13 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.14
6.06.05.01
Measurement 1: -25 < b14 < 25, -25 < a14 < 25 Measurement 2: -25 < b14 < 25, -25 < a14 < 25 Measurement 3: -25 < b14 < 25, -25 < a14 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.15
6.06.05.01
Measurement 1: -25 < b15 < 25, -25 < a15 < 25 Measurement 2: -25 < b15 < 25, -25 < a15 < 25 Measurement 3: -25 < b15 < 25, -25 < a15 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.03.16
6.06.05.01
Measurement 1: -25 < b16 < 25, -25 < a16 < 25 Measurement 2: -25 < b16 < 25, -25 < a16 < 25 Measurement 3: -25 < b16 < 25, -25 < a16 < 25
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.03.04.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.04.00
6.06.05.01
The magnet cross-talk shall be constrained such that all Nonlinear multipoles are < 200(uT) within a 21(mm) radius of HSR axis.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.04.01
6.06.05.01
There are no linear multipole cross-talk requirements. The associated correctors shall have sufficient capacity to correct for these as needed.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.05.01
6.06.05.01
Currently the magnet has no radial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.05.02
6.06.05.01
Currently the magnet has no axial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 (g/s), and pressure between 3.5(bar) and 4(ba)r, and at a temperature below 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using supercritical helium between 3.5(bar) and 4(bar), and at a temperature of less than 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 1TBD(W) while maintaining nominal operating conditions with supercritical helium between 3.5(bar) and 4(bar), and at a temperature of less than 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of 0.5(W) at the cold end while maintaining nominal operating conditions between 3.5(bar) and 4(bar) and below 4.7 (K), and lead cooling flow of: Assuming 100(A) leads, and lead cooling flows required are as follows: For currents below 10(A) · The cooling flow is 0.028 (g/s) For currents up to 10(A), · The cooling flow increases by 0.000031 (g/s)/(A) · Upto the peak current ~100(A). Maximum flow of ~ 0.031(g/s)
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 (bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50(K) axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5 days.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ)_ at 4.7 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: · 60 thermal cycles, · 180 quenches. 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
Approved
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-ESR-Q2ER_SKQ.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR : Interaction Region/Hadron Stroage Ring Magnets

IR-MAG-HSR-B0APF : IR Magnet B0APF (WBS 6.06.02.01.01)

P-IR-MAG-HSR-B0APF.01.01
TBD
The magnet shall have a single function vertical dipole field.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.01.06
TBD
The physical length of the magnet cold mass insert shall be less than or equal to 0.6(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.01.09
TBD
The beam tube inner bore radius when warm, shall be greater than or equal to 43(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.01.11.00
TBD
The magnet shall be designed to fit within the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.01.11.01
TBD
The magnet and its cryostat (designated FC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 4.47(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.01.11.02.00
TBD
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.01.11.02.01
TBD
The magnetic field axis displacement tolerances: dx=+/-na dy=+/-na dz=+/-na
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.01.11.02.02
TBD
The magnetic field rotational alignment tolerances: About X=+/- na About Y=+/- na About Z=+/- 0.2
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.02.02
TBD
The maximum integrated Quadrupole field required is 2(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 2.2 (Tm).
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.02.03
TBD
The magnet shall be able to ramp to field within 300 (s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.02.07.01.00
TBD
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.02.07.01.01
TBD
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.02.07.01.02
TBD
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.03.00
TBD
The magnet field homogeneity shall be measured within the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.03.01
TBD
The harmonic reference radius Rr shall be 30(mm), centered at (x=0,y=0) mm with respect to the beam axis.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.03.02
TBD
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.03.03
TBD
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.03.03.01
TBD
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.02
TBD
Measurement 1: -2 < b2 < 2, Measurement 2: -2 < b2 < 2, Measurement 3: -2 < b2 < 2, Measurement 4: -2 < b2 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.03
TBD
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.04
TBD
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.05
TBD
Measurement 1: -2 < b5 < 2, Measurement 2: -2 < b5 < 2, Measurement 3: -2 < b5 < 2, Measurement 4: -2 < b5 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.06
TBD
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.07
TBD
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.08
TBD
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.09
TBD
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.10
TBD
Measurement 1: -2 < b10 < 2, Measurement 2: -2 < b10 < 2, Measurement 3: -2 < b10 < 2, Measurement 4: -2 < b10 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.11
TBD
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.12
TBD
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.13
TBD
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.14
TBD
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.15
TBD
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.03.03.16
TBD
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.04.00
TBD
The magnet crosstalk onto the ESR beam line Shall be constrained such that
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.04.01
TBD
Non linear multipoles < 10 (uT) within 42(mm) of ESR axis
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.04.02
TBD
The Linear multipoles are < 10(gauss) on the ESR axis
10/30/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.05.00
TBD
The magnet shall be designed to meet the following external fringe field constraints
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.05.01
TBD
The magnet has no radial fringe field requirments.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.05.02
TBD
The magnet has no axial fringe field requirments.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.00
TBD
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.01
TBD
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.02
TBD
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.03
TBD
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.04
TBD
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.05
TBD
The maximum differential internal pressure from the helium volume to
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.06
TBD
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.07
TBD
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.08
TBD
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.06.09
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.07.00
TBD
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.07.01
TBD
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.07.02
TBD
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.07.03
TBD
The magnet shall be designed to attain the design field with no more than 20 training quenches.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.08.00
TBD
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.08.01
TBD
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.08.02
TBD
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.08.03
TBD
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
10/30/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.09.00
TBD
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
11/05/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.10.00
TBD
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
10/30/2025
In Process
FALSE

IR-MAG-HSR-B0PF : IR Magnet B0PF (WBS 6.06.02.01.01)

P-IR-MAG-HSR-B0PF.01.01
6.06.05.01
The magnet shall have two fields 1. A vertical dipole field centered on the physical coil axis 2. A normal quadrupole field centered on the physical coil axis When both fields are energized there should be a zero integrated field on the electron beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.27 (m).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.01.09
6.06.05.01
The magnet bore radius when warm, shall be large enough to accommodate a detector outer radius of 275(mm), centered at x=34(mm) towards the HSR and Y=0(mm), both wrt the ESR axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.01.11.01
6.06.05.01
The magnet cryostat shall be designed such that The main cylindrical volume has An outside diameter less than 0.9(m) A length less than 1.65(m). All ancillary equipment, support structures and turrets, which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: Displacement in X= 150 (um) Displacement in Y= 150 (um) Displacement in Z= +/-1(mm)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: Rotational about X= +/-2(mrad) Rotational about Y= +/-2(mrad) Rotational about Z= +/-0.2(mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.02.01
6.06.05.01
The fields shall be such that the 275GeV proton beam bends by 1.704 (mrad) away from the ESR. The approximate integrated field seen by the hadron beam is 1.56(Tm), the magnet design should include an additional 10% tuning margin giving a required integrated field of ~1.72(Tm)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.02.03
6.06.05.01
The magnet shall ramp to its maximum value in 300(s).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position Displacement in X= 2(mm) Displacement in Y= 2(mm) Displacement in Z= 2(mm)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis Rotational about X= +/-0.2(mrad) Rotational about Y= +/-0.2(mrad) Rotational about Z= +/-0.2(mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.02.08
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0PF.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.01
6.06.05.01
The harmonic reference radius of the cylinder in which the field quality shall be measured is =50(mm), centered at X=160mm, Y=0(mm) wrt the ESR axis to extend along the length of the magnet.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.02
6.06.05.01
The field measurements shall be made with the magnet energized to the following values. Measurement 1: 275GeV Measurement 2: 100GeV Measurement 3: 41GeV Measurement 4: 23GeV
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03
6.06.05.01
The magnet bore field SHALL have the following multipole content. (See comments.)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.01
6.06.05.01
B1 is na
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.02
6.06.05.01
B2 is na
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.03
6.06.05.01
Measurement 1: -3xF < b3 <2xF, Measurement 2: -3xF < b3 <2xF, Measurement 3: -3xF < b3 <2xF, Measurement 4: -3xF < b3 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.04
6.06.05.01
Measurement 1: -3xF < b4 <2xF, Measurement 2: -3xF < b4 <2xF, Measurement 3: -3xF < b4 <2xF, Measurement 4: -3xF < b4 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.05
6.06.05.01
Measurement 1: -3xF < b5 <2, Measurement 2: -3xF < b5 <2, Measurement 3: -3xF < b5 <2, Measurement 4: -3xF < b5 <2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.06
6.06.05.01
Measurement 1: -3xF < b6 <2xF, Measurement 2: -3xF < b6 <2xF, Measurement 3: -3xF < b6 <2xF, Measurement 4: -3xF < b6 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.07
6.06.05.01
Measurement 1: -3xF < b7 <2xF, Measurement 2: -3xF < b7 <2xF, Measurement 3: -3xF < b7 <2xF, Measurement 4: -3xF < b7 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.08
6.06.05.01
Measurement 1: -3xF < b8 <2xF, Measurement 2: -3xF < b8 <2xF, Measurement 3: -3xF < b8 <2xF, Measurement 4: -3xF < b8 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.09
6.06.05.01
Measurement 1: -3xF < b9 <2xF, Measurement 2: -3xF < b9 <2xF, Measurement 3: -3xF < b9 <2xF, Measurement 4: -3xF < b9 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.10
6.06.05.01
Measurement 1: -3xF < b10 <2, Measurement 2: -3xF < b10 <2, Measurement 3: -3xF < b10 <2, Measurement 4: -3xF < b10 <2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.11
6.06.05.01
Measurement 1: -3xF < b11 <2xF, Measurement 2: -3xF < b11 <2xF, Measurement 3: -3xF < b11 <2xF, Measurement 4: -3xF < b11 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.12
6.06.05.01
Measurement 1: -3xF < b12 <2xF, Measurement 2: -3xF < b12 <2xF, Measurement 3: -3xF < b12 <2xF, Measurement 4: -3xF < b12 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.13
6.06.05.01
Measurement 1: -3xF < b13 <2xF, Measurement 2: -3xF < b13 <2xF, Measurement 3: -3xF < b13 <2xF, Measurement 4: -3xF < b13 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.14
6.06.05.01
Measurement 1: -3xF < b14 <2xF, Measurement 2: -3xF < b14 <2xF, Measurement 3: -3xF < b14 <2xF, Measurement 4: -3xF < b14 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.15
6.06.05.01
Measurement 1: -3xF < b15 <2xF, Measurement 2: -3xF < b15 <2xF, Measurement 3: -3xF < b15 <2xF, Measurement 4: -3xF < b15 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.03.03.16
6.06.05.01
Measurement 1: -3xF < b16 <2xF, Measurement 2: -3xF < b16 <2xF, Measurement 3: -3xF < b16 <2xF, Measurement 4: -3xF < b16 <2xF
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.00
6.06.05.01
The magnet cross-talk shall be constrained such that all harmonic multipoles within the HSR beampipe are as follows
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.01
6.06.05.01
The field shall be measured within the cylindrical volume which is occupied by the ESR beampipe having a radius of 18(mm) located at x=0(mm), y=0(mm) wrt the ESR beam axis. The length of the cylinder L shall extend along the length of the Q0eF magnet
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.02
6.06.05.01
The field measurements shall be made with B0pF energized to its maximum field. The measurement may be made with Q0eF off or on or not present in the B0pF bore
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03
6.06.05.01
The multipole crosstalk in the Q0EF magnet bore from the B0PF field SHALL not exceed the following values, The units are (Gauss.m) unless otherwise specified. (see comment for additional notes)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.01
6.06.05.01
ʃLB1dL<+/-10(Gauss.m) ʃLB12dL<+/-2500(Gauss2 m)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.02
6.06.05.01
B2 has no requirements
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.03
6.06.05.01
Measurement 1: -0.025< B3 <0.025, Measurement 2: -0.025< B3 <0.025, Measurement 3: -0.025< B3 <0.025, Measurement 4: -0.025< B3 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.04
6.06.05.01
Measurement 1: -0.025< B4 <0.025, Measurement 2: -0.025< B4 <0.025, Measurement 3: -0.025< B4 <0.025, Measurement 4: -0.025< B4 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.05
6.06.05.01
Measurement 1: -0.025< B5 <0.025, Measurement 2: -0.025< B5 <0.025, Measurement 3: -0.025< B5 <0.025, Measurement 4: -0.025< B5 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.06
6.06.05.01
Measurement 1: -0.025< B6 <0.025, Measurement 2: -0.025< B6 <0.025, Measurement 3: -0.025< B6 <0.025, Measurement 4: -0.025< B6 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.07
6.06.05.01
Measurement 1: -0.025< B7 <0.025, Measurement 2: -0.025< B7 <0.025, Measurement 3: -0.025< B7 <0.025, Measurement 4: -0.025< B7 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.08
6.06.05.01
Measurement 1: -0.025< B8 <0.025, Measurement 2: -0.025< B8 <0.025, Measurement 3: -0.025< B8 <0.025, Measurement 4: -0.025< B8 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.09
6.06.05.01
Measurement 1: -0.025< B9 <0.025, Measurement 2: -0.025< B9 <0.025, Measurement 3: -0.025< B9 <0.025, Measurement 4: -0.025< B9 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.10
6.06.05.01
Measurement 1: -0.025< B10 <0.025, Measurement 2: -0.025< B10 <0.025, Measurement 3: -0.025< B10 <0.025, Measurement 4: -0.025< B10 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.11
6.06.05.01
Measurement 1: -0.025< B11 <0.025, Measurement 2: -0.025< B11 <0.025, Measurement 3: -0.025< B11 <0.025, Measurement 4: -0.025< B11 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.12
6.06.05.01
Measurement 1: -0.025< B12 <0.025, Measurement 2: -0.025< B12 <0.025, Measurement 3: -0.025< B12 <0.025, Measurement 4: -0.025< B12 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.13
6.06.05.01
Measurement 1: -0.025< B13 <0.025, Measurement 2: -0.025< B13 <0.025, Measurement 3: -0.025< B13 <0.025, Measurement 4: -0.025< B13 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.14
6.06.05.01
Measurement 1: -0.025< B14 <0.025, Measurement 2: -0.025< B14 <0.025, Measurement 3: -0.025< B14 <0.025, Measurement 4: -0.025< B14 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.15
6.06.05.01
Measurement 1: -0.025< B15 <0.025, Measurement 2: -0.025< B15 <0.025, Measurement 3: -0.025< B15 <0.025, Measurement 4: -0.025< B15 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.04.03.16
6.06.05.01
Measurement 1: -0.025< B16 <0.025, Measurement 2: -0.025< B16 <0.025, Measurement 3: -0.025< B16 <0.025, Measurement 4: -0.025< B16 <0.025
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.01
6.06.05.01
The magnet system shall be designed to be cooled and sustain operations at nominal operating conditions with a pressurized He-II volume at 1.4 bar and 2.0K. The sub-atmospheric side Bath (of the heat exchanger) will operate at 1.92K and at its saturated pressure.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.02
6.06.05.01
The magnet HTS current leads’ HTS/Copper-leads heat stationshall be designed to be cooled and sustain operations at nominal operating conditions using supply helium at 3.5 (bar) and 4.7(K)and shall have an exit temperature of 40K or warmer with a heat of load of 465W.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.03
6.06.05.01
The magnet design shall be capable of removing a maximum total heat load of 3.7(W) while maintaining nominal operating conditions of 1.42(bar) and 2.0. The magnet system shall have a heat exchanger that will remove heat from the pressurized magnet side volume into the sub-atmospheric pumped side volume
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10.3(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.06.09
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0PF.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B0PF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0PF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0PF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0PF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0PF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q1APR : IR Magnet Q1APR (WBS 6.06.02.01.01)

P-IR-MAG-HSR-Q1APR.01.01
6.06.05.01
The magnet shall have a single function normal quadrupole field.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.8(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 23.75(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.067(m) Length less than 2.073(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 137(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 150.7 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300 (s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.03.01
6.06.05.01
The harmonic reference radius Rr shall be 18(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.03.03.01
6.06.05.01
-
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.02
6.06.05.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000, Measurement 4: b2= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, Measurement 2: -2 < b5 < 2, Measurement 3: -2 < b5 < 2, Measurement 4: -2 < b5 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.10
6.06.05.01
Measurement 1: -2 < b10 < 2, Measurement 2: -2 < b10 < 2, Measurement 3: -2 < b10 < 2, Measurement 4: -2 < b10 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.04.01
6.06.05.01
All non linear multipoles < 10 (uT) within 30(mm) of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.04.02
6.06.05.01
the Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions in a saturated bath at 4.55K (1.35bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using vapor from the saturated bath at 4.55K (1.35bar)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.03
6.06.05.01
The magnet shall be capable of removing the maximum total heat load of TBD (W) while maintaining nominal operating conditions in the saturated bath at 4.55K ( 1.35bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of TBD1(W) at the cold end while maintaining nominal operating conditions in the saturated bath at 4.55K (1.35bar) Assuming 1(kA) leads, and lead cooling flows required are as follows: For currents below 50(A) The cooling flow is 0.014 (g/s) For currents up to 50 (A), The cooling flow increases by 0.000031(g/s)/(A) upto the peak current ~500(A). Maximum flow of ~ 0.028(g/s) Maximum flow of ~ 0.028(g/s)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days using warm gas.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.55 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q1BPR : IR Magnet Q1BPR (WBS 6.06.02.01.01)

P-IR-MAG-HSR-Q1BPR.01.01
6.06.05.01
The magnet shall have a single function normal Quadrupole field
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.6 (m). The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.01.09
6.06.05.01
The inner beam tube bore radius when warm shall be greater than or equal to 30.1(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius(To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-2) should be designed to fit within a cylindrical volume having an Outside diameter less than 1.37 (m) Length less than 1.65 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/- 0.15 mm dy=+/- 0.15 mm dz=+/- 0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.3 mrad About Y=+/- 0.3 mrad About Z=+/- 0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.02.02
6.06.05.01
The integrated Quadrupole field required is 107(T), the magnet design shall include an additional 10% tuning margin giving a maximum required field of 117.7 (T).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.02.03
6.06.05.01
The magnet shall be able to ramp within 300(s) from injection field to maximum operating field. All new HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here] with a factor 2 safety margin.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits:(Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 0.20 mm dy=+/- 0.20 mm dz=+/- 0.20 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 mrad About Y=+/- 0.3 mrad About Z=+/- 0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.01
6.06.05.01
The harmonic reference radius Rr shall be 21(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.02
6.06.05.01
The measurements at the reference radius shall be made at the design field for the 4 following energisation levels: Measurement 1 at minimum excitation of 23(GeV) Measurement 2 at mid excitation1 of 41(GeV) Measurement 3 at mid excitation2of 100(GeV) Measurement 4 at maximum excitation 275(GeV)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.01
6.06.05.01
na
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.02
6.06.05.01
Measurement 1: b2= 10000, -2 < a2 < 2 Measurement 2: b2= 10000, -2 < a2 < 2 Measurement 3: b2= 10000, -2 < a2 < 2 Measurement 4: b2= 10000, -2 < a2 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, -2 < a3 < 2 Measurement 2: -2 < b3 < 2, -2 < a3 < 2 Measurement 3: -2 < b3 < 2, -2 < a3 < 2 Measurement 4: -2 < b3 < 2, -2 < a3 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, -2 < a4 < 2 Measurement 2: -2 < b4 < 2, -2 < a4 < 2 Measurement 3: -2 < b4 < 2, -2 < a4 < 2 Measurement 4: -2 < b4 < 2 -2 < a4 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, -2 < a5 < 2 Measurement 2: -2 < b5 < 2, -2 < a5 < 2 Measurement 3: -2 < b5 < 2, -2 < a5 < 2 Measurement 4: -2 < b5 < 2, -2 < a5 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, -2 < a6 < 2 Measurement 2: -2 < b6 < 2, -2 < a6 < 2 Measurement 3: -2 < b6 < 2, -2 < a6 < 2 Measurement 4: -2 < b6 < 2, -2 < a6 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, -2 < a7 < 2 Measurement 2: -2 < b7 < 2, -2 < a7 < 2 Measurement 3: -2 < b7 < 2, -2 < a7 < 2 Measurement 4: -2 < b7 < 2, -2 < a7 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, -2 < a8 < 2 Measurement 2: -2 < b8 < 2, -2 < a8 < 2 Measurement 3: -2 < b8 < 2, -2 < a8 < 2 Measurement 4: -2 < b8 < 2, -2 < a8 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, -2 < a9 < 2 Measurement 2: -2 < b9 < 2, -2 < a9 < 2 Measurement 3: -2 < b9 < 2, -2 < a9 < 2 Measurement 4: -2 < b9 < 2, -2 < a9 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.10
6.06.05.01
Measurement 1: -2 < b10 < 2, -2 < a10 < 2 Measurement 2: -2 < b10 < 2, -2 < a10 < 2 Measurement 3: -2 < b10 < 2, -2 < a10 < 2 Measurement 4: -2 < b10 < 2, -2 < a10 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, -2 < b11 < 2 Measurement 2: -2 < b11 < 2, -2 < b11 < 2 Measurement 3: -2 < b11 < 2, -2 < b11 < 2 Measurement 4: -2 < b11 < 2, -2 < b11 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, -2 < a12 < 2 Measurement 2: -2 < b12 < 2, -2 < a12 < 2 Measurement 3: -2 < b12 < 2, -2 < a12 < 2 Measurement 4: -2 < b12 < 2, -2 < a12 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, -2 < a13 < 2 Measurement 2: -2 < b13 < 2, -2 < a13 < 2 Measurement 3: -2 < b13 < 2, -2 < a13 < 2 Measurement 4: -2 < b13 < 2, -2 < a13 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, -2 < a14 < 2 Measurement 2: -2 < b14 < 2, -2 < a14 < 2 Measurement 3: -2 < b14 < 2, -2 < a14 < 2 Measurement 4: -2 < b14 < 2, -2 < a14 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, -2 < a15 < 2 Measurement 2: -2 < b15 < 2, -2 < a15 < 2 Measurement 3: -2 < b15 < 2, -2 < a15 < 2 Measurement 4: -2 < b15 < 2, -2 < a15 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, -2 < a16 < 2 Measurement 2: -2 < b16 < 2, -2 < a16 < 2 Measurement 3: -2 < b16 < 2, -2 < a16 < 2 Measurement 4: -2 < b16 < 2, -2 < a16 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.04.00
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 32(mm) of the ESR axis such that all non linear harmonic multipoles are less than <10(µT)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.04.01
6.06.05.01
The magnet cross-talk shall be constrained such that the linear harmonic multipoles on the ESR axis shall not exceed 10(Gauss)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.05.01
6.06.05.01
Currently the magnet has no radial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.05.02
6.06.05.01
Currently the magnet has no axial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 g/s, and pressure between 3.5bar and 4 bar, and at a temperature below 4.7K.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using supercritical helium between 3.5 bar and 4 bar, and at a temperature of less than 4.7K.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 1TBD(W) while maintaining nominal operating conditions with supercritical helium between 3.5 bar and 4 bar, and at a temperature of less than 4.7K.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of 1 (W) at the cold end while maintaining nominal operating conditions between 3.5 bar and 4 bar and below 4.7 (K). Assuming 1(kA) leads, and lead cooling flows required are as follows: For currents below 50(A) · The cooling flow is 0.014 (g/s) For currents up to 50 (A), · The cooling flow increases by 0.000031 (g/s)/(A) · Upto the peak current ~500(A). Maximum flow of ~ 0.028(g/s)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 (bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5 days.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ) at 4.7 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: · 60 thermal cycles, · 180 quenches 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q2PR : IR Magnet Q2PR (WBS 6.06.02.01.01)

P-IR-MAG-HSR-Q2PR.01.01
6.06.05.01
The magnet shall have a single function normal quadrupole field.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 4.5(m). The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number [EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 57.3mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius(To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-3) should be designed to fit within a cylindrical volume having an Outside diameter less than 1.68(m) Length less than 5.06(m) All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 mm dy=+/-0.15 mm dz=+/-0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/-0.3 mrad About Y=+/-0.3mrad About Z=+/-0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 119(T), the magnet design shall include an additional 10% tuning margin giving a required field of 130.9 (T).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300 (s). Additionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits:(Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 0.15 mm dy=+/- 0.15 mm dz=+/- 0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 mrad About Y=+/- 0.3 mrad About Z=+/- 0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.01
6.06.05.01
The harmonic reference radius Rr shall be 35(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.01
6.06.05.01
-
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.02
6.06.05.01
Measurement 1: b2= 10000, -2 < a2 < 2 Measurement 2: b2= 10000, -2 < a2 < 2 Measurement 3: b2= 10000, -2 < a2 < 2 Measurement 4: b2= 10000, -2 < a2 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, -2 < a3 < 2 Measurement 2: -2 < b3 < 2, -2 < a3 < 2 Measurement 3: -2 < b3 < 2, -2 < a3 < 2 Measurement 4: -2 < b3 < 2, -2 < a3 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, -2 < a4 < 2 Measurement 2: -2 < b4 < 2, -2 < a4 < 2 Measurement 3: -2 < b4 < 2, -2 < a4 < 2 Measurement 4: -2 < b4 < 2 -2 < a4 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, -2 < a5 < 2 Measurement 2: -2 < b5 < 2, -2 < a5 < 2 Measurement 3: -2 < b5 < 2, -2 < a5 < 2 Measurement 4: -2 < b5 < 2, -2 < a5 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, -2 < a6 < 2 Measurement 2: -2 < b6 < 2, -2 < a6 < 2 Measurement 3: -2 < b6 < 2, -2 < a6 < 2 Measurement 4: -2 < b6 < 2, -2 < a6 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, -2 < a7 < 2 Measurement 2: -2 < b7 < 2, -2 < a7 < 2 Measurement 3: -2 < b7 < 2, -2 < a7 < 2 Measurement 4: -2 < b7 < 2, -2 < a7 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, -2 < a8 < 2 Measurement 2: -2 < b8 < 2, -2 < a8 < 2 Measurement 3: -2 < b8 < 2, -2 < a8 < 2 Measurement 4: -2 < b8 < 2, -2 < a8 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, -2 < a9 < 2 Measurement 2: -2 < b9 < 2, -2 < a9 < 2 Measurement 3: -2 < b9 < 2, -2 < a9 < 2 Measurement 4: -2 < b9 < 2, -2 < a9 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.10
6.06.05.01
Measurement 1: -2 < b10 < 2, -2 < a10 < 2 Measurement 2: -2 < b10 < 2, -2 < a10 < 2 Measurement 3: -2 < b10 < 2, -2 < a10 < 2 Measurement 4: -2 < b10 < 2, -2 < a10 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, -2 < b11 < 2 Measurement 2: -2 < b11 < 2, -2 < b11 < 2 Measurement 3: -2 < b11 < 2, -2 < b11 < 2 Measurement 4: -2 < b11 < 2, -2 < b11 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, -2 < a12 < 2 Measurement 2: -2 < b12 < 2, -2 < a12 < 2 Measurement 3: -2 < b12 < 2, -2 < a12 < 2 Measurement 4: -2 < b12 < 2, -2 < a12 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, -2 < a13 < 2 Measurement 2: -2 < b13 < 2, -2 < a13 < 2 Measurement 3: -2 < b13 < 2, -2 < a13 < 2 Measurement 4: -2 < b13 < 2, -2 < a13 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, -2 < a14 < 2 Measurement 2: -2 < b14 < 2, -2 < a14 < 2 Measurement 3: -2 < b14 < 2, -2 < a14 < 2 Measurement 4: -2 < b14 < 2, -2 < a14 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, -2 < a15 < 2 Measurement 2: -2 < b15 < 2, -2 < a15 < 2 Measurement 3: -2 < b15 < 2, -2 < a15 < 2 Measurement 4: -2 < b15 < 2, -2 < a15 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, -2 < a16 < 2 Measurement 2: -2 < b16 < 2, -2 < a16 < 2 Measurement 3: -2 < b16 < 2, -2 < a16 < 2 Measurement 4: -2 < b16 < 2, -2 < a16 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.04.01
6.06.05.01
All nonlinear multipoles < 10 (uT) within 35(mm) of ESR axis
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.04.02
6.06.05.01
All linear multipoles are < 10 (gauss) on the ESR axis
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.05.01
6.06.05.01
The magnet has no radial fringe field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.05.02
6.06.05.01
The magnet has no axial fringe field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions in a saturated bath at 4.55K (1.35bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using vapor from the saturated bath at 4.55K (1.35bar)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.03
6.06.05.01
The magnet shall be capable of removing the maximum total heat load of TBD1 (W) while maintaining nominal operating conditions in the saturated bath at 4.55K ( 1.35bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of TBD1(W) at the cold end while maintaining nominal operating conditions in the saturated bath at 4.55K (1.35bar) Assuming 1(kA) leads, and lead cooling flows required are as follows: For currents below 50(A) The cooling flow is 0.014 (g/s) For currents up to 50 (A), The cooling flow increases by 0.000031(g/s)/(A) upto the peak current ~500(A). Maximum flow of ~ 0.028(g/s)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days using warm gas.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ) at 4.55 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: · 60 thermal cycles, · 180 quenches. 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit should be taken as a guide for the design process. The actual upper limit the magnet will see in operation will need further analysis and will need to be confirmed by the EIC radiation physics team
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PR.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PR.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PR.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-B1APF : IR Magnet B1APF (WBS 6.06.02.01.02)

P-IR-MAG-HSR-B1APF.01.01
6.06.05.01
The magnet shall have a single function dipole with a vertical field direction with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.5(m).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.01.09
6.06.05.01
The inner beam tube bore radius when warm shall be greater than or equal to 168(mm).
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the IR Forward main cryostat and comply with all inner IR geometry constraints. Note: The geometry required is contained in the Forward IR Main cryostat Interface requirements. [EIC-SEG-RSI-063: Forward IR main SC magnet cryostat Interface control document]
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.01.11.01
6.06.05.01
The magnet shall have a clear volume as needed to accommodate the beam pipe.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.01.11.02.00
6.06.05.01
The final magnet assembly position and alignment values with respect to the nominal beam position and axis shall be within the following limits:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.01.11.02.01
6.06.05.01
Magnet Cold Mass Center Displacement (with respect to the nominal beam position) Displacement in X= 2(mm) Displacement in Y= 2(mm) Displacement in Z= 2(mm)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.01.11.02.02
6.06.05.01
Magnet Cold Rotational Alignment (with respect to the nominal beam Axis) Rotational about X= +/-0.2(mrad) Rotational about Y= +/-0.2(mrad) Rotational about Z= +/-0.2(mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.02.01
6.06.05.01
The maximum integrated dipole field required is 4.05(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 4.46(Tm).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.02.03
6.06.05.01
The magnet shall have a peak ramp rate of 0.02(T/s) and be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document, TBD]
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.02.07.01.00
6.06.05.01
The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: Note: Z is along the beam axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1APF.02.07.01.01
6.06.05.01
Field Center Displacement (with respect to the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z= na
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.02.07.01.02
6.06.05.01
Field Rotational Alignment (with respect to the physical magnets primary axis X,Y,Z) Rotational about X= na Rotational about Y= na Rotational about Z= +/-0.2(mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.00
6.06.05.01
The magnet shall be designed to meet the following field quality\multipole requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.01
6.06.05.01
The harmonic Reference radius (Rr) shall be 45(mm), centered at (x=0(mm),y=0(mm)) with respect to the magnet axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.02
6.06.05.01
The Reference field (Bref) for the different measurements shall be: Measurement 1 = 0.34(Tm) Measurement 2= 0.61(Tm) Measurement 3= 1.49(Tm) Measurement 4= 4.46(Tm)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03
6.06.05.01
The magnet bore field SHALL have the following multipole content. Notes: The units are in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units. A range of -2 to +2 units is a 1st pass. It is assumed all components have a normal distribution of values within this range. More analysis is needed to understand, how to better define the spread in single real magnet and the effect of such a distribution on the beam.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.01
6.06.05.01
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.02
6.06.05.01
Measurement 1: -2 < b2 < 2, Measurement 2: -2 < b2 < 2, Measurement 3: -2 < b2 < 2, Measurement 4: -2 < b2 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.05
6.06.05.01
Measurement 1: -2 < b5 <2, Measurement 2: -2 < b5 <2, Measurement 3: -2 < b5 <2, Measurement 4: -2 < b5 <2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.10
6.06.05.01
Measurement 1: -2 < b10 <2, Measurement 2: -2 < b10 <2, Measurement 3: -2 < b10 <2, Measurement 4: -2 < b10 <2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.04.00
6.06.05.01
The magnet cross-talk shall be constrained as follows:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.04.01
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 50(mm) and have all harmonic multipoles with an average less than 10(µT).
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.04.02
6.06.05.01
The magnet cross-talk shall be constrained such that, at its maximum energy, the magnetic cross talk from B1APF on the center axis of the ESR shall be less than 10(gauss).
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.05.01
6.06.05.01
The magnet has no radial fringe field requirements.
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.05.02
6.06.05.01
The magnet has no axial fringe field requirements.
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar) and 1.92(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 5.9 Watts while maintaining nominal operating conditions under 1.3(bar) and 1.92(k).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of 36 Watts at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of 1.8(g/s) from 4.5(K) to 300(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.05
6.06.05.01
The maximum internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.06.09
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1APF.07.00
6.06.05.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.07.02
6.06.05.01
After magnet thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.07.03
6.06.05.01
The magnet shall not quench when ramping down within a time interval of 360 seconds from full current.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage + 500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead in and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module shall be less than 1.0(nΩ) at 1.9(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1APF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1APF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1APF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1APF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1APF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-B1PF : IR Magnet B1PF (WBS 6.06.02.01.02)

P-IR-MAG-HSR-B1PF.01.01
6.06.05.01
The magnet shall have a single function vertical dipole field.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 3(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 135(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-3) shall be designed to fit within a cylindrical volume having an Outside diameter less than 2.172(m) Length less than 3.248(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-na dy=+/-na dz=+/-na
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- na About Y=+/- na About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.02.01
6.06.05.01
The maximum integrated Dipole field required is 10.08(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 11.088 (Tm).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-B1PF.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300(s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.02.07
6.06.04.03.01.02
The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: Note: Z is along the beam axis
09/25/2025
In Process
FALSE

P-IR-MAG-HSR-B1PF.02.07.01
6.06.04.03.01.02
Field Center Displacement (with respect to the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z= na
09/25/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.02.07.01.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.02.07.01.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.02.07.01.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.02.07.02
6.06.04.03.01.02
Field Rotational Alignment (with respect to the physical magnets primary axis X,Y,Z) Rotational about X= na Rotational about Y= na Rotational about Z= +/-0.2(mrad)
09/25/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.03.01
6.06.05.01
The harmonic reference radius Rr shall be 45(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.03.03.01
6.06.05.01
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.02
6.06.05.01
Measurement 1: -2 < b2 < 2, Measurement 2: -2 < b2 < 2, Measurement 3: -2 < b2 < 2, Measurement 4: -2 < b2 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, Measurement 2: -2 < b5 < 2, Measurement 3: -2 < b5 < 2, Measurement 4: -2 < b5 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.10
6.06.05.01
Measurement 1: -2 < b10 < 2, Measurement 2: -2 < b10 < 2, Measurement 3: -2 < b10 < 2, Measurement 4: -2 < b10 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.04.01
6.06.05.01
Non linear multipoles < 10 (uT) within 50mm of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.04.02
6.06.05.01
The Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.06.09
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-B1PR : IR Magnet B1PR (WBS 6.06.02.01.02)

IR-MAG-HSR-B2PR : IR Magnet B2PR (WBS 6.06.02.01.02)

IR-MAG-HSR-Q1APF : IR Magnet Q1APF (WBS 6.06.02.01.02)

P-IR-MAG-HSR-Q1APF.01.01
6.06.05.01
The magnet shall have a single function normal quadrupole field.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.46(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 56(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 4.47(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 122(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 134.2 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300 (s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.03.01
6.06.05.01
The harmonic reference radius Rr shall be 50(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.03.03.01
6.06.05.01
-
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.02
6.06.05.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000, Measurement 4: b2= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, Measurement 2: -2 < b5 < 2, Measurement 3: -2 < b5 < 2, Measurement 4: -2 < b5 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.10
6.06.05.01
Measurement 1: -2 < b10 < 2, Measurement 2: -2 < b10 < 2, Measurement 3: -2 < b10 < 2, Measurement 4: -2 < b10 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.04.01
6.06.05.01
Non linear multipoles < 10 (uT) within 42(mm) of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.04.02
6.06.05.01
The Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q1BPF : IR Magnet Q1BPF (WBS 6.06.02.01.02)

P-IR-MAG-HSR-Q1BPF.01
6.06.04.01.01.02.03
The magnet shall have a single function normal Quadrupole field
09/30/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.01
6.06.05.01
The magnet shall have a single function normal quadrupole field.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.61(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 78(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 4.47(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 78(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 85.8 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300 (s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.03.01
6.06.05.01
The harmonic reference radius Rr shall be 50(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.01
6.06.05.01
-
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.02
6.06.05.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000, Measurement 4: b2= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.05
6.06.05.01
Measurement 1: -2 < b5 < 2, Measurement 2: -2 < b5 < 2, Measurement 3: -2 < b5 < 2, Measurement 4: -2 < b5 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.10
6.06.05.01
Measurement 1: -2 < b10 < 2, Measurement 2: -2 < b10 < 2, Measurement 3: -2 < b10 < 2, Measurement 4: -2 < b10 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.04.01
6.06.05.01
Non linear multipoles < 10 (uT) within 42(mm) of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.04.02
6.06.05.01
The Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q2PF : IR Magnet Q2PF (WBS 6.06.02.01.02)

P-IR-MAG-HSR-Q2PF.01.01
6.06.05.01
The magnet shall have a single function normal Quadrupole field.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 3.8(m).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.01.09
6.06.05.01
The inner beam tube bore radius when warm, shall be greater than or equal to 131(mm).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.01.11.01
6.06.05.01
The magnet shall be designed to fit within the following envelope. The magnet cold mass must comply with the geometry restrictions defined by the IR layout and fit within the Forward IR Cryostat FC2.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.01.11.02.00
6.06.05.01
The final magnet assembly position and alignment values with respect to the nominal beam position and axis shall be within the following limits: Notes: The geometry required is defined in the Forward IR Main cryostats Interface requirements [EIC-SEG-RSI-063 Forward IR main cryostats Interface Control Document].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: Displacement in X= +/-150 (um) Displacement in Y= +/-150 (um) Displacement in Z= +/-150 (um)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: Rotational about X= +/-0.2 (mrad) Rotational about Y= +/-0.2 (mrad) Rotational about Z= +/-0.2 (mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 132 (T), the magnet design shall include an additional 10% tuning margin giving a required field of 145.2 (T).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.02.03
6.06.05.01
The magnet shall have a peak ramp rate of 0.968 (T/s) and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position Displacement in X= 0.5 (mm) Displacement in Y= 0.5 (mm) Displacement in Z= 2 (mm)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis Rotational about X= +/-0.2 (mrad) Rotational about Y= +/-0.2 (mrad) Rotational about Z= +/-0.2 (mrad)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.00
6.06.05.01
The magnet field homogenity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.01
6.06.05.01
The harmonic reference radius at which the field quality shall be measured is R=43(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.02
6.06.05.01
The field at the reference radius Gref shall be, G(at 23GeV)=TBD(T) ~12.14T G(at 41GeV)=TBD(T) ~21.65T G(at100GeV)=TBD(T) ~52.8T G(at 275GeV)=TBD(T). ~145.2T
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PF.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.02
6.06.05.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000, Measurement 4: b2= 10000
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.03
6.06.05.01
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.04
6.06.05.01
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.05
6.06.05.01
Measurement 1: -2 < b5 <2, Measurement 2: -2 < b5 <2, Measurement 3: -2 < b5 <2, Measurement 4: -2 < b5 <2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.06
6.06.05.01
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.07
6.06.05.01
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.08
6.06.05.01
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.09
6.06.05.01
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.10
6.06.05.01
Measurement 1: -2 < b10 <2, Measurement 2: -2 < b10 <2, Measurement 3: -2 < b10 <2, Measurement 4: -2 < b10 <2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.11
6.06.05.01
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.12
6.06.05.01
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.13
6.06.05.01
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.14
6.06.05.01
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.15
6.06.05.01
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.03.03.16
6.06.05.01
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.04.00
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.04.xx
6.06.04.02.01.02
The magnet cross-talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from Q2PF on the center axis of the ESR shall be less than 10(gauss).
09/25/2025
Reviewed
FALSE

P-IR-MAG-HSR-Q2PF.04.01
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 50 (mm) of the ESR axis such that all harmonic multipoles average less than 10 (µT).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.04.02
6.06.05.01
The magnet cross-talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from Q2pF on the center axis of the ESR shall be less than 10 (gauss).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PF.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of 24 (W) at the cold end while maintaining nominal operating conditions under 1.3 (bar) and 4.5 (K), and vapor cooling flow of 1.2 (g/s) from 4.5 (K) to 300 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.06.09
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PF.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PF.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PF.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PF.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PF.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PF.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-B2PF : IR Magnet B2PF (WBS 6.06.02.06)

P-IR-MAG-HSR-B2PF.01.01
6.06.06.03
The magnet shall have a single function dipole with a vertical field direction along the beam axis.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.01.06
6.06.06.03
The physical length of the magnet cold mass insert shall be less than or equal to 3.1 (m).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.01.09
6.06.06.03
The inner beam tube bore radius when warm, shall be greater than or equal to 60(mm).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.01.11.00
6.06.06.03
The magnet shall be designed to fit within the following constraints:
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.01.11.01
6.06.06.03
The magnet and its cryostat (designated B2PF) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.2(m) Length less than 4.4(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
10/30/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.01.11.02.00
6.06.06.03
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.01.11.02.01
6.06.06.03
The magnetic field axis displacement tolerances: Displacement in X= na Displacement in Y= na Displacement in Z= na
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.01.11.02.02
6.06.06.03
The magnetic field rotational alignment tolerances: Rotational about X= na Rotational about Y= na Rotational about Z= +/-0.2(mrad)
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.02.01
6.06.06.03
The maximum integrated Dipole field required is 15.4 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 16.94 (Tm).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.02.03
6.06.06.03
The magnet shall have a peak ramp rate of 0.04 T/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.02.07.01.01
6.06.06.03
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.02.07.01.02
6.06.06.03
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position Displacement in X= 2(mm) Displacement in Y= 2(mm) Displacement in Z= 2(mm)
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.02.08
6.06.06.03
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis Rotational about X= +/-0.2(mrad) Rotational about Y= +/-0.2(mrad) Rotational about Z= +/-0.2(mrad)
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.00
6.06.06.03
The magnet field homogenity shall be measured within the following constraints:
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.01
6.06.06.03
The harmonic reference radius Rr shall be 50(mm), centered at (x=0,y=0) mm with respect to the beam axis.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.02
6.06.06.03
The field at the reference radius Bref shall be, B(at 23GeV)~1.42(Tm) B(at 41GeV)~2.53(Tm) B(at100GeV)~6.16(Tm) B(at 275GeV)=16.94(Tm).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03
6.06.06.03
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.01
6.06.06.03
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.02
6.06.06.03
Measurement 1: -2 < b2 < 2, Measurement 2: -2 < b2 < 2, Measurement 3: -2 < b2 < 2, Measurement 4: -2 < b2 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.03
6.06.06.03
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.04
6.06.06.03
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.05
6.06.06.03
Measurement 1: -2 < b5 <2, Measurement 2: -2 < b5 <2, Measurement 3: -2 < b5 <2, Measurement 4: -2 < b5 <2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.06
6.06.06.03
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.07
6.06.06.03
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.08
6.06.06.03
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.09
6.06.06.03
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.10
6.06.06.03
Measurement 1: -2 < b10 <2, Measurement 2: -2 < b10 <2, Measurement 3: -2 < b10 <2, Measurement 4: -2 < b10 <2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.11
6.06.06.03
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.12
6.06.06.03
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.13
6.06.06.03
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.14
6.06.06.03
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.15
6.06.06.03
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.03.03.16
6.06.06.03
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.04.00
6.06.06.03
The magnet cross-talk shall be constrained such that the field at the Crab cavity surface does not exceed <700 mG.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.05.00
6.06.06.03
The magnet shall be designed to meet the following external fringe field constraints
08/29/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.05.01
6.06.06.03
The magnet shall have a stray field of no more than TBD gauss at a radial distance of TBD(m) from the Dipole axis.
08/29/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.05.02
6.06.06.03
The stray field from the magnet of shall not exceed TBD (gauss) for axial distances greater than TBD(m) from the end plane of the magnet cryostat.
08/29/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.00
6.06.06.03
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.01
6.06.06.03
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.02
6.06.06.03
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.03
6.06.06.03
The current leads shall be sized for 6(W/kA) of current leads dissipating 36(W) for a 15(kA) Lead Pair(W)
10/30/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.04
6.06.06.03
The cryogenic system shall be capable of removing a maximum total heat load of 36(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of 1.8 (g/s) for a 15kA current lead pair from 4.5(K) to 300(K)
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.05
6.06.06.03
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10.3(bar).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.06
6.06.06.03
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.07
6.06.06.03
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes, except for cooldown from 300K to 4.5K. In this mode the flow shall be supplied directly into the magnet structure volume and exit via a separate cooldown line.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.06.08
6.06.06.03
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.07.00
6.06.07.02.18
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
09/30/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.07.01
6.06.07.02.18
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
09/30/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.07.02
6.06.07.02.18
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
09/30/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.07.03
6.06.07.02.18
The magnet shall be designed to attain the design field with no more than 20 training quenches.
09/30/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.08.00
6.06.06.03
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.08.01
6.06.06.03
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.08.02
6.06.06.03
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.08.03
6.06.06.03
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
08/29/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.09.00
6.06.06.03
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
11/05/2025
Approved
FALSE

P-IR-MAG-HSR-B2PF.10.00
TBD
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
10/30/2025
In Process
FALSE

IR-MAG-HSR-B0APF_SKQ

P-IR-MAG-HSR-B0APF_SKQ.01.01
6.06.05.01
The magnet shall have a single function corrector with a skew quadrupole field
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 0.6(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 43(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 4.47(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-na dy=+/-na dz=+/-na
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- na About Y=+/- na About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 3(Tm), the magnet design shall include an additional 20% tuning margin giving a required field of 3.6 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300 (s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.01
6.06.05.01
The harmonic reference radius Rr shall be 30(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.01
6.06.05.01
-
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.02
6.06.05.01
Measurement 1: a2= 10000, Measurement 2: a2= 10000, Measurement 3: a2= 10000, Measurement 4: a2= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.03
6.06.05.01
Measurement 1: -100 < a3 < +100, Measurement 2: -100 < a3 < +100, Measurement 3: -100 < a3 < +100, Measurement 4: -100 < a3 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.04
6.06.05.01
Measurement 1: -100 < a4 < +100, Measurement 2: -100 < a4 < +100, Measurement 3: -100 < a4 < +100, Measurement 4: -100 < a4 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.05
6.06.05.01
Measurement 1: -100 < a5 < +100, Measurement 2: -100 < a5 < +100, Measurement 3: -100 < a5 < +100, Measurement 4: -100 < a5 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.06
6.06.05.01
Measurement 1: -100 < a6 < +100, Measurement 2: -100 < a6 < +100, Measurement 3: -100 < a6 < +100, Measurement 4: -100 < a6 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.07
6.06.05.01
Measurement 1: -100 < a7 < +100, Measurement 2: -100 < a7 < +100, Measurement 3: -100 < a7 < +100, Measurement 4: -100 < a7 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.08
6.06.05.01
Measurement 1: -100 < a8 < +100, Measurement 2: -100 < a8 < +100, Measurement 3: -100 < a8 < +100, Measurement 4: -100 < a8 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.09
6.06.05.01
Measurement 1: -100 < a9 < +100, Measurement 2: -100 < a9 < +100, Measurement 3: -100 < a9 < +100, Measurement 4: -100 < a9 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.10
6.06.05.01
Measurement 1: -100 < a10 < +100, Measurement 2: -100 < a10 < +100, Measurement 3: -100 < a10 < +100, Measurement 4: -100 < a10 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.11
6.06.05.01
Measurement 1: -100 < a11 < +100, Measurement 2: -100 < a11 < +100, Measurement 3: -100 < a11 < +100, Measurement 4: -100 < a11 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.12
6.06.05.01
Measurement 1: -100 < a12 < +100, Measurement 2: -100 < a12 < +100, Measurement 3: -100 < a12 < +100, Measurement 4: -100 < a12 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.13
6.06.05.01
Measurement 1: -100 < a13 < +100, Measurement 2: -100 < a13 < +100, Measurement 3: -100 < a13 < +100, Measurement 4: -100 < a13 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.14
6.06.05.01
Measurement 1: -100 < a14 < +100, Measurement 2: -100 < a14 < +100, Measurement 3: -100 < a14 < +100, Measurement 4: -100 < a14 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.15
6.06.05.01
Measurement 1: -100 < a15 < +100, Measurement 2: -100 < a15 < +100, Measurement 3: -100 < a15 < +100, Measurement 4: -100 < a15 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.03.03.16
6.06.05.01
Measurement 1: -100 < a16 < +100, Measurement 2: -100 < a16 < +100, Measurement 3: -100 < a16 < +100, Measurement 4: -100 < a16 < +100
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.04.01
6.06.05.01
Non linear multipoles < 10 (uT) within 42(mm) of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.04.02
6.06.05.01
The Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_SKQ.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_SKQ.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-B0APF_VC

P-IR-MAG-HSR-B0APF_VC.01.01
6.06.05.01
The magnet shall have a single function vertical corrector with a horizontal dipole field
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 0.6(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 43(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 4.47(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-na dy=+/-na dz=+/-na
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- na About Y=+/- na About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 0.6(Tm), the magnet design shall include an additional 20% tuning margin giving a required field of 0.72 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300 (s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.03.01
6.06.05.01
The harmonic reference radius Rr shall be 30(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.01
6.06.05.01
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.02
6.06.05.01
Measurement 1: -3 < b2 < +3, Measurement 2: -3 < b2 < +3, Measurement 3: -3 < b2 < +3, Measurement 4: -3 < b2 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.03
6.06.05.01
Measurement 1: -3 < b3 < +3, Measurement 2: -3 < b3 < +3, Measurement 3: -3 < b3 < +3, Measurement 4: -3 < b3 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.04
6.06.05.01
Measurement 1: -3 < b4 < +3, Measurement 2: -3 < b4 < +3, Measurement 3: -3 < b4 < +3, Measurement 4: -3 < b4 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.05
6.06.05.01
Measurement 1: -3 < b5 < +3, Measurement 2: -3 < b5 < +3, Measurement 3: -3 < b5 < +3, Measurement 4: -3 < b5 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.06
6.06.05.01
Measurement 1: -3 < b6 < +3, Measurement 2: -3 < b6 < +3, Measurement 3: -3 < b6 < +3, Measurement 4: -3 < b6 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.07
6.06.05.01
Measurement 1: -3 < b7 < +3, Measurement 2: -3 < b7 < +3, Measurement 3: -3 < b7 < +3, Measurement 4: -3 < b7 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.08
6.06.05.01
Measurement 1: -3 < b8 < +3, Measurement 2: -3 < b8 < +3, Measurement 3: -3 < b8 < +3, Measurement 4: -3 < b8 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.09
6.06.05.01
Measurement 1: -3 < b9 < +3, Measurement 2: -3 < b9 < +3, Measurement 3: -3 < b9 < +3, Measurement 4: -3 < b9 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.10
6.06.05.01
Measurement 1: -3 < b10 < +3, Measurement 2: -3 < b10 < +3, Measurement 3: -3 < b10 < +3, Measurement 4: -3 < b10 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.11
6.06.05.01
Measurement 1: -3 < b11 < +3, Measurement 2: -3 < b11 < +3, Measurement 3: -3 < b11 < +3, Measurement 4: -3 < b11 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.12
6.06.05.01
Measurement 1: -3 < b12 < +3, Measurement 2: -3 < b12 < +3, Measurement 3: -3 < b12 < +3, Measurement 4: -3 < b12 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.13
6.06.05.01
Measurement 1: -3 < b13 < +3, Measurement 2: -3 < b13 < +3, Measurement 3: -3 < b13 < +3, Measurement 4: -3 < b13 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.14
6.06.05.01
Measurement 1: -3 < b14 < +3, Measurement 2: -3 < b14 < +3, Measurement 3: -3 < b14 < +3, Measurement 4: -3 < b14 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.15
6.06.05.01
Measurement 1: -3 < b15 < +3, Measurement 2: -3 < b15 < +3, Measurement 3: -3 < b15 < +3, Measurement 4: -3 < b15 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.03.03.16
6.06.05.01
Measurement 1: -3 < b16 < +3, Measurement 2: -3 < b16 < +3, Measurement 3: -3 < b16 < +3, Measurement 4: -3 < b16 < +3
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.04.01
6.06.05.01
Non linear multipoles < 10 (uT) within 42(mm) of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.04.02
6.06.05.01
The Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF_VC.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B0APF_VC.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-B1PF_SKQ

P-IR-MAG-HSR-B1PF_SKQ.01.01
6.06.05.01
The magnet shall have a single function corrector with a skew quadrupole field
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 3(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 135(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.01.11.01
6.06.05.01
The magnet and its cryostat (designated FC-3) shall be designed to fit within a cylindrical volume having an Outside diameter less than 2.172(m) Length less than 3.248(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 3(Tm), the magnet design shall include an additional 20% tuning margin giving a required field of 3.6 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300(s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 2 dy=+/- 2 dz=+/- 2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.2 About Y=+/- 0.2 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.01
6.06.05.01
The harmonic reference radius Rr shall be 45(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.01
6.06.05.01
-
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.02
6.06.05.01
Measurement 1: a2= 10000, Measurement 2: a2= 10000, Measurement 3: a2= 10000, Measurement 4: a2= 10000
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.03
6.06.05.01
Measurement 1: -200 < a3 < +200, Measurement 2: -200 < a3 < +200, Measurement 3: -200 < a3 < +200, Measurement 4: -200 < a3 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.04
6.06.05.01
Measurement 1: -200 < a4 < +200, Measurement 2: -200 < a4 < +200, Measurement 3: -200 < a4 < +200, Measurement 4: -200 < a4 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.05
6.06.05.01
Measurement 1: -200 < a5 < +200, Measurement 2: -200 < a5 < +200, Measurement 3: -200 < a5 < +200, Measurement 4: -200 < a5 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.06
6.06.05.01
Measurement 1: -200 < a6 < +200, Measurement 2: -200 < a6 < +200, Measurement 3: -200 < a6 < +200, Measurement 4: -200 < a6 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.07
6.06.05.01
Measurement 1: -200 < a7 < +200, Measurement 2: -200 < a7 < +200, Measurement 3: -200 < a7 < +200, Measurement 4: -200 < a7 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.08
6.06.05.01
Measurement 1: -200 < a8 < +200, Measurement 2: -200 < a8 < +200, Measurement 3: -200 < a8 < +200, Measurement 4: -200 < a8 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.09
6.06.05.01
Measurement 1: -200 < a9 < +200, Measurement 2: -200 < a9 < +200, Measurement 3: -200 < a9 < +200, Measurement 4: -200 < a9 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.10
6.06.05.01
Measurement 1: -200 < a10 < +200, Measurement 2: -200 < a10 < +200, Measurement 3: -200 < a10 < +200, Measurement 4: -200 < a10 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.11
6.06.05.01
Measurement 1: -200 < a11 < +200, Measurement 2: -200 < a11 < +200, Measurement 3: -200 < a11 < +200, Measurement 4: -200 < a11 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.12
6.06.05.01
Measurement 1: -200 < a12 < +200, Measurement 2: -200 < a12 < +200, Measurement 3: -200 < a12 < +200, Measurement 4: -200 < a12 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.13
6.06.05.01
Measurement 1: -200 < a13 < +200, Measurement 2: -200 < a13 < +200, Measurement 3: -200 < a13 < +200, Measurement 4: -200 < a13 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.14
6.06.05.01
Measurement 1: -200 < a14 < +200, Measurement 2: -200 < a14 < +200, Measurement 3: -200 < a14 < +200, Measurement 4: -200 < a14 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.15
6.06.05.01
Measurement 1: -200 < a15 < +200, Measurement 2: -200 < a15 < +200, Measurement 3: -200 < a15 < +200, Measurement 4: -200 < a15 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.03.03.16
6.06.05.01
Measurement 1: -200 < a16 < +200, Measurement 2: -200 < a16 < +200, Measurement 3: -200 < a16 < +200, Measurement 4: -200 < a16 < +200
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.04.01
6.06.05.01
Non linear multipoles < 10 (uT) within 50mm of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.04.02
6.06.05.01
The Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF_SKQ.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.10.00
6.06.05.01
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-B1PF_SKQ.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q1APR_VC

P-IR-MAG-HSR-Q1APR_VC.01.01
6.06.05.01
The magnet shall have a single function vertical corrector with a horizontal dipole field
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.8(m). The magnet design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 23.75(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius (To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.067(m) Length less than 2.073(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-na dy=+/-na dz=+/-na
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- na About Y=+/- na About Z=+/- 1
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.02.02
6.06.05.01
The maximum integrated Quadrupole field required is 0.6(Tm), the magnet design shall include an additional 20% tuning margin giving a required field of 0.72 (Tm).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.02.03
6.06.05.01
The magnet shall be able to ramp to field within 300 (s). Aditionally all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/-0.15 dy=+/-0.15 dz=+/-0.15
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 About Y=+/- 0.3 About Z=+/- 0.2
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.01
6.06.05.01
The harmonic reference radius Rr shall be 18(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03
6.06.05.01
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.01
6.06.05.01
Measurement 1: b1= 10000, -4 < a1 < 4 Measurement 2: b1= 10000, -4 < a1 < 4 Measurement 3: b1= 10000, -4 < a1 < 4 Measurement 4: b1= 10000, -4 < a1 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.02
6.06.05.01
Measurement 1: -4 < b2 < 4, -4 < a2 < 4 Measurement 2: -4 < b2 < 4, -4 < a2 < 4 Measurement 3: -4 < b2 < 4, -4 < a2 < 4 Measurement 4: -4 < b2 < 4, -4 < a2 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.03
6.06.05.01
Measurement 1: -4 < b3 < 4, -4 < a3 < 4, Measurement 2: -4 < b3 < 4, -4 < a3 < 4, Measurement 3: -4 < b3 < 4, -4 < a3 < 4, Measurement 4: -4 < b3 < 4, -4 < a3 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.04
6.06.05.01
Measurement 1: -4 < b4 < 4, -4 < a4 < 4, Measurement 2: -4 < b4 < 4, -4 < a4 < 4, Measurement 3: -4 < b4 < 4, -4 < a4 < 4, Measurement 4: -4 < b4 < 4 -4 < a4 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.05
6.06.05.01
Measurement 1: -4 < b5 < 4, -4 < a5 < 4, Measurement 2: -4 < b5 < 4, -4 < a5 < 4, Measurement 3: -4 < b5 < 4, -4 < a5 < 4, Measurement 4: -4 < b5 < 4, -4 < a5 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.06
6.06.05.01
Measurement 1: -4 < b6 < 4, -4 < a6 < 4 Measurement 2: -4 < b6 < 4, -4 < a6 < 4 Measurement 3: -4 < b6 < 4, -4 < a6 < 4 Measurement 4: -4 < b6 < 4, -4 < a6 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.07
6.06.05.01
Measurement 1: -4 < b7 < 4, -4 < a7 < 4 Measurement 2: -4 < b7 < 4, -4 < a7 < 4 Measurement 3: -4 < b7 < 4, -4 < a7 < 4 Measurement 4: -4 < b7 < 4, -4 < a7 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.08
6.06.05.01
Measurement 1: -4 < b8 < 4, -4 < a8 < 4 Measurement 2: -4 < b8 < 4, -4 < a8 < 4 Measurement 3: -4 < b8 < 4, -4 < a8 < 4 Measurement 4: -4 < b8 < 4, -4 < a8 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.09
6.06.05.01
Measurement 1: -4 < b9 < 4, -4 < a9 < 4 Measurement 2: -4 < b9 < 4, -4 < a9 < 4 Measurement 3: -4 < b9 < 4, -4 < a9 < 4 Measurement 4: -4 < b9 < 4, -4 < a9 < 4,
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.10
6.06.05.01
Measurement 1: -4 < b10 < 4, -4 < a10 < 4 Measurement 2: -4 < b10 < 4, -4 < a10 < 4 Measurement 3: -4 < b10 < 4, -4 < a10 < 4 Measurement 4: -4 < b10 < 4, -4 < a10 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.11
6.06.05.01
Measurement 1: -4 < b11 < 4, -4 < a11 < 4 Measurement 2: -4 < b11 < 4, -4 < a11 < 4 Measurement 3: -4 < b11 < 4, -4 < a11 < 4 Measurement 4: -4 < b11 < 4, -4 < a11 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.12
6.06.05.01
Measurement 1: -4 < b12 < 4, -4 < a12 < 4 Measurement 2: -4 < b12 < 4, -4 < a12 < 4 Measurement 3: -4 < b12 < 4, -4 < a12 < 4 Measurement 4: -4 < b12 < 4, -4 < a12 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.13
6.06.05.01
Measurement 1: -4 < b13 < 4, -4 < a13 < 4 Measurement 2: -4 < b13 < 4, -4 < a13 < 4 Measurement 3: -4 < b13 < 4, -4 < a13 < 4 Measurement 4: -4 < b13 < 4, -4 < a13 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.14
6.06.05.01
Measurement 1: -4 < b14 < 4, -4 < a14 < 4 Measurement 2: -4 < b14 < 4, -4 < a14 < 4 Measurement 3: -4 < b14 < 4, -4 < a14 < 4 Measurement 4: -4 < b14 < 4, -4 < a14 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.15
6.06.05.01
Measurement 1: -4 < b15 < 4, -4 < a15 < 4 Measurement 2: -4 < b15 < 4, -4 < a15 < 4 Measurement 3: -4 < b15 < 4, -4 < a15 < 4 Measurement 4: -4 < b15 < 4, -4 < a15 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.03.03.16
6.06.05.01
Measurement 1: -4 < b16 < 4, -4 < a16 < 4 Measurement 2: -4 < b16 < 4, -4 < a16 < 4 Measurement 3: -4 < b16 < 4, -4 < a16 < 4 Measurement 4: -4 < b16 < 4, -4 < a16 < 4
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.04.01
6.06.05.01
All non linear multipoles < 10 (uT) within 30(mm) of ESR axis
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.04.02
6.06.05.01
the Linear multipoles are < 10(gauss) on the ESR axis
02/09/2026
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APR_VC.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.05.01
6.06.05.01
The magnet has no radial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.05.02
6.06.05.01
The magnet has no axial fringe field requirments.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions in a saturated bath at 4.55K (1.35bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using vapor from the saturated bath at 4.55K (1.35bar)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.03
6.06.05.01
The magnet shall be capable of removing the maximum total heat load of TBD (W) while maintaining nominal operating conditions in the saturated bath at 4.55K (1.35bar) .
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of TBD (W) at the cold end while maintaining nominal operating conditions in the saturated bath at 4.55K (1.35bar) Assuming 100(A) leads, and lead cooling flows required are as follows: For currents below 10(A) The cooling flow is 0.028(g/s) For currents up to 10 (A), The cooling flow increases by 0.000031 (g/s)/(A) up to the peak current ~100(A). Maximum flow of ~ 0.031(g/s)Maximum flow of ~ 0.031(g/s)
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days using warm gas
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.55 K.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1APR_VC.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q1BPR_SKQ

P-IR-MAG-HSR-Q1BPR_SKQ.01.01
6.06.05.01
The magnet shall have a single function Skew Quadrupole field.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 1.6 (m). The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.01.09
6.06.05.01
The inner beam tube bore radius when warm, shall be greater than or equal to 30.1(mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius(To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-2) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.37 (m) Length less than 1.65 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 mm dy=+/-0.15 mm dz=+/-0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/- 0.3 mrad About Y=+/- 0.3 mrad About Z=+/- 0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.02.02
6.06.05.01
The integrated Quadrupole field required is 3(T), the magnet design shall include a 20% additional tuning margin giving a required maximum operating field of 3.6 (T).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.02.03
6.06.05.01
The magnet shall be able to ramp within 300(s) from injection field to maximum operating field. All new HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here] with a factor 2 safety margin.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits:(Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 0.2 mm dy=+/- 0.2 mm dz=+/- 0.2 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 mrad About Y=+/- 0.3 mrad About Z=+/- 0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.01
6.06.05.01
The harmonic reference radius Rr shall be 21(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.02
6.06.05.01
The measurements at the reference radius shall be made at the design field for the 4 following energisation levels: Measurement 1 at minimum excitation of 23(GeV) Measurement 2 at mid excitation1 of 41(GeV) Measurement 3 at mid excitation2of 100(GeV) Measurement 4 at maximum excitation 275(GeV)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03
6.06.05.01
The magnet bore field SHALL have the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.01
6.06.05.01
-
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.02
6.06.05.01
Measurement 1: -50 < b2 < 50, a2= 10000, Measurement 2: -50 < b2 < 50, a2= 10000 Measurement 3: -50 < b2 < 50, a2= 10000 Measurement 4: -50 < b2 < 50, a2= 10000
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.03
6.06.05.01
Measurement 1: -50 < b3 < 50, -50 < a3 < 50 Measurement 2: -50 < b3 < 50, -50 < a3 < 50 Measurement 3: -50 < b3 < 50, -50 < a3 < 50 Measurement 4: -50 < b3 < 50, -50 < a3 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.04
6.06.05.01
Measurement 1: -50 < b4 < 50, -50 < a4 < 50 Measurement 2: -50 < b4 < 50, -50 < a4 < 50 Measurement 3: -50 < b4 < 50, -50 < a4 < 50 Measurement 4: -50 < b4 < 50 -50 < a4 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.05
6.06.05.01
Measurement 1: -50 < b5 < 50, -50 < a5 < 50 Measurement 2: -50 < b5 < 50, -50 < a5 < 50 Measurement 3: -50 < b5 < 50, -50 < a5 < 50 Measurement 4: -50 < b5 < 50, -50 < a5 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.06
6.06.05.01
Measurement 1: -50 < b6 < 50, -50 < a6 < 50 Measurement 2: -50 < b6 < 50, -50 < a6 < 50 Measurement 3: -50 < b6 < 50, -50 < a6 < 50 Measurement 4: -50 < b6 < 50, -50 < a6 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.07
6.06.05.01
Measurement 1: -50 < b7 < 50, -50 < a7 < 50 Measurement 2: -50 < b7 < 50, -50 < a7 < 50 Measurement 3: -50 < b7 < 50, -50 < a7 < 50 Measurement 4: -50 < b7 < 50, -50 < a7 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.08
6.06.05.01
Measurement 1: -50 < b8 < 50, -50 < a8 < 50 Measurement 2: -50 < b8 < 50, -50 < a8 < 50 Measurement 3: -50 < b8 < 50, -50 < a8 < 50 Measurement 4: -50 < b8 < 50, -50 < a8 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.09
6.06.05.01
Measurement 1: -50 < b9 < 50, -50 < a9 < 50 Measurement 2: -50 < b9 < 50, -50 < a9 < 50 Measurement 3: -50 < b9 < 50, -50 < a9 < 50 Measurement 4: -50 < b9 < 50, -50 < a9 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.10
6.06.05.01
Measurement 1: -50 < b10 < 50, -50 < a10 < 50 Measurement 2: -50 < b10 < 50, -50 < a10 < 50 Measurement 3: -50 < b10 < 50, -50 < a10 < 50 Measurement 4: -50 < b10 < 50, -50 < a10 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.11
6.06.05.01
Measurement 1: -50 < b11 < 50, -50 < a11 < 50 Measurement 2: -50 < b11 < 50, -50 < a11 < 50 Measurement 3: -50 < b11 < 50, -50 < a11 < 50 Measurement 4: -50 < b11 < 50, -50 < a11 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.12
6.06.05.01
Measurement 1: -50 < b12 < 50, -50 < a12 < 50 Measurement 2: -50 < b12 < 50, -50 < a12 < 50 Measurement 3: -50 < b12 < 50, -50 < a12 < 50 Measurement 4: -50 < b12 < 50, -50 < a12 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.13
6.06.05.01
Measurement 1: -50 < b13 < 50, -50 < a13 < 50 Measurement 2: -50 < b13 < 50, -50 < a13 < 50 Measurement 3: -50 < b13 < 50, -50 < a13 < 50 Measurement 4: -50 < b13 < 50, -50 < a13 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.14
6.06.05.01
Measurement 1: -50 < b14 < 50, -50 < a14 < 50 Measurement 2: -50 < b14 < 50, -50 < a14 < 50 Measurement 3: -50 < b14 < 50, -50 < a14 < 50 Measurement 4: -50 < b14 < 50, -50 < a14 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.15
6.06.05.01
Measurement 1: -50 < b15 < 50, -50 < a15 < 50 Measurement 2: -50 < b15 < 50, -50 < a15 < 50 Measurement 3: -50 < b15 < 50, -50 < a15 < 50 Measurement 4: -50 < b15 < 50, -50 < a15 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.03.16
6.06.05.01
Measurement 1: -50 < b16 < 50, -50 < a16 < 50 Measurement 2: -50 < b16 < 50, -50 < a16 < 50 Measurement 3: -50 < b16 < 50, -50 < a16 < 50 Measurement 4: -50 < b16 < 50, -50 < a16 < 50
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.03.04.00
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.04.00
6.06.05.01
The magnet cross-talk shall be constrained within a radius of 32(mm) of the ESR axis such that all non linear harmonic multipoles are less than <10(µT)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.04.01
6.06.05.01
The magnet cross-talk shall be constrained such that the linear harmonic multipoles on the ESR axis shall not exceed 10(Gauss)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.05.01
6.06.05.01
Currently the magnet has no radial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.05.02
6.06.05.01
Currently the magnet has no axial stray field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 (g/s), and pressure between 3.5(bar) and 4(bar), and at a temperature below 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using supercritical helium between 3.5 (bar) and 4(bar), and at a temperature of less than 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.03
6.06.05.01
The magnet shall be capable of removing a maximum total heat load of 1TBD(W) while maintaining nominal operating conditions with supercritical helium between 3.5 (bar) and 4 (bar), and at a temperature of less than 4.7(K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of 0.5(W) at the cold end while maintaining nominal operating conditions between 3.5(bar)_ and 4(bar) and below 4.7 (K), and lead cooling flow of: Assuming 100(A) leads, and lead cooling flows required are as follows: For currents below 10(A) · The cooling flow is 0.028 (g/s) For currents up to 10 (A), · The cooling flow increases by 0.000031 (g/s)/(A) · Upto the peak current ~100(A). Maximum flow of ~ 0.031(g/s)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 (bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50(K) axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5 days.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ) at 4.7 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: · 60 thermal cycles, · 180 quenches 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q1BPR_SKQ.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q2PR_HC

P-IR-MAG-HSR-Q2PR_HC.01.01
6.06.05.01
The magnet shall have a single function Horizontal corrector with a Vertical dipole field.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.01.06
6.06.05.01
The physical length of the magnet cold mass insert shall be less than or equal to 4.5(m). The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.01.09
6.06.05.01
The beam tube inner bore radius when warm, shall be greater than or equal to 57.3mm). The inner radius of the coil must incorporate appropriate allowances for all the structure required between the coil inner radius and the beam tube inner radius(To include the beam tube wall thickness, Coil inner support tube, ground plane insulation, additional coil windings appropriate build tolerances etc.) The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.01.11.00
6.06.05.01
The magnet shall be designed to fit within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.01.11.01
6.06.05.01
The magnet and its cryostat (designated RC-3) should be designed to fit within a cylindrical volume having an Outside diameter less than 1.68(m) Length less than 5.06(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.01.11.02.00
6.06.05.01
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.01.11.02.01
6.06.05.01
The magnetic field axis displacement tolerances: dx=+/-0.15 mm dy=+/-0.15 mm dz=+/-0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.01.11.02.02
6.06.05.01
The magnetic field rotational alignment tolerances: About X=+/-0.3 mrad About Y=+/-0.3mrad About Z=+/-0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.02.02
6.06.05.01
The maximum integrated Dipole field required is 0.5(Tm), the magnet design shall include an additional 20% tuning margin giving a required field of 0.6(Tm).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.02.03
6.06.05.01
There are currently no ramp rate requirements on this magnet
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.02.07.01.00
6.06.05.01
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits:(Note: Z is along the beam axis)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.02.07.01.01
6.06.05.01
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position dx=+/- 0.15 mm dy=+/- 0.15 mm dz=+/- 0.15 mm
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.02.07.01.02
6.06.05.01
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis About X=+/- 0.3 mrad About Y=+/- 0.3 mrad About Z=+/- 0.2 mrad
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.00
6.06.05.01
The magnet field homogeneity shall be measured within the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.01
6.06.05.01
The harmonic reference radius Rr shall be 35(mm), centered at (x=0,y=0) mm with respect to the beam axis.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.02
6.06.05.01
The measurements at the reference radius Bref shall be made at the design field for the 4 following energisation levels, Measurement 1: Design field for 23GeV Measurement 2: Design field for 41GeV Measurement 3: Design field for 100GeV Measurement 4: Design field for 275GeV
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03
6.06.05.01
The magnet bore field SHALL have the following multipole content. Notes: The units are specified in parts of 10-4 of the main components.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.01
6.06.05.01
Measurement 1: b1= 10000, -20 < a1 < 20 Measurement 2: b1= 10000, -20 < a1 < 20 Measurement 3: b1= 10000, -20 < a1 < 20 Measurement 4: b1= 10000, -20 < a1 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.02
6.06.05.01
Measurement 1: -20 < b2 < 20, -20 < a2 < 20 Measurement 2: -20 < b2 < 20, -20 < a2 < 20 Measurement 3: -20 < b2 < 20, -20 < a2 < 20 Measurement 4: -20 < b2 < 20, -20 < a2 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.03
6.06.05.01
Measurement 1: -20 < b3 < 20, -20 < a3 < 20 Measurement 2: -20 < b3 < 20, -20 < a3 < 20 Measurement 3: -20 < b3 < 20, -20 < a3 < 20 Measurement 4: -20 < b3 < 20, -20 < a3 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.04
6.06.05.01
Measurement 1: -20 < b4 < 20, -20 < a4 < 20 Measurement 2: -20 < b4 < 20, -20 < a4 < 20 Measurement 3: -20 < b4 < 20, -20 < a4 < 20 Measurement 4: -20 < b4 < 20 -20 < a4 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.05
6.06.05.01
Measurement 1: -20 < b5 < 20, -20 < a5 < 20 Measurement 2: -20 < b5 < 20, -20 < a5 < 20 Measurement 3: -20 < b5 < 20, -20 < a5 < 20 Measurement 4: -20 < b5 < 20, -20 < a5 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.06
6.06.05.01
Measurement 1: -20 < b6 < 20, -20 < a6 < 20 Measurement 2: -20 < b6 < 20, -20 < a6 < 20 Measurement 3: -20 < b6 < 20, -20 < a6 < 20 Measurement 4: -20 < b6 < 20, -20 < a6 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.07
6.06.05.01
Measurement 1: -20 < b7 < 20, -20 < a7 < 20 Measurement 2: -20 < b7 < 20, -20 < a7 < 20 Measurement 3: -20 < b7 < 20, -20 < a7 < 20 Measurement 4: -20 < b7 < 20, -20 < a7 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.08
6.06.05.01
Measurement 1: -20 < b8 < 20, -20 < a8 < 20 Measurement 2: -20 < b8 < 20, -20 < a8 < 20 Measurement 3: -20 < b8 < 20, -20 < a8 < 20 Measurement 4: -20 < b8 < 20, -20 < a8 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.09
6.06.05.01
Measurement 1: -20 < b9 < 20, -20 < a9 < 20 Measurement 2: -20 < b9 < 20, -20 < a9 < 20 Measurement 3: -20 < b9 < 20, -20 < a9 < 20 Measurement 4: -20 < b9 < 20, -20 < a9 < 20,
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.10
6.06.05.01
Measurement 1: -20 < b10 < 20, -20 < a10 < 20 Measurement 2: -20 < b10 < 20, -20 < a10 < 20 Measurement 3: -20 < b10 < 20, -20 < a10 < 20 Measurement 4: -20 < b10 < 20, -20 < a10 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.11
6.06.05.01
Measurement 1: -20 < b11 < 20, -20 < a11 < 20 Measurement 2: -20 < b11 < 20, -20 < a11 < 20 Measurement 3: -20 < b11 < 20, -20 < a11 < 20 Measurement 4: -20 < b11 < 20, -20 < a11 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.12
6.06.05.01
Measurement 1: -20 < b12 < 20, -20 < a12 < 20 Measurement 2: -20 < b12 < 20, -20 < a12 < 20 Measurement 3: -20 < b12 < 20, -20 < a12 < 20 Measurement 4: -20 < b12 < 20, -20 < a12 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.13
6.06.05.01
Measurement 1: -20 < b13 < 20, -20 < a13 < 20 Measurement 2: -20 < b13 < 20, -20 < a13 < 20 Measurement 3: -20 < b13 < 20, -20 < a13 < 20 Measurement 4: -20 < b13 < 20, -20 < a13 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.14
6.06.05.01
Measurement 1: -20 < b14 < 20, -20 < a14 < 20 Measurement 2: -20 < b14 < 20, -20 < a14 < 20 Measurement 3: -20 < b14 < 20, -20 < a14 < 20 Measurement 4: -20 < b14 < 20, -20 < a14 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.15
6.06.05.01
Measurement 1: -20 < b15 < 20, -20 < a15 < 20 Measurement 2: -20 < b15 < 20, -20 < a15 < 20 Measurement 3: -20 < b15 < 20, -20 < a15 < 20 Measurement 4: -20 < b15 < 20, -20 < a15 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.03.03.16
6.06.05.01
Measurement 1: -20 < b16 < 20, -20 < a16 < 20 Measurement 2: -20 < b16 < 20, -20 < a16 < 20 Measurement 3: -20 < b16 < 20, -20 < a16 < 20 Measurement 4: -20 < b16 < 20, -20 < a16 < 20
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.04.00
6.06.05.01
The magnet crosstalk onto the ESR beam line Shall be constrained such that
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.04.01
6.06.05.01
All nonlinear multipoles < 10 (uT) within 35(mm) of ESR axis
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.04.02
6.06.05.01
All Linear multipoles are < 10 (gauss) on the ESR axis
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.05.00
6.06.05.01
The magnet shall be designed to meet the following external fringe field constraints
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.05.01
6.06.05.01
The magnet has no radial fringe field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.05.02
6.06.05.01
The magnet has no axial fringe field requirements.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.00
6.06.05.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.01
6.06.05.01
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions in a saturated bath at 4.55K (1.35bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.02
6.06.05.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using vapor from the saturated bath at 4.55K (1.35bar)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.03
6.06.05.01
The magnet shall be capable of removing the maximum total heat load of TBD1(W) while maintaining nominal operating conditions in the saturated bath at 4.55K ( 1.35bar) .
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.04
6.06.05.01
The magnet current leads cooling shall be capable of removing a maximum total heat load each of TBD1(W) at the cold end while maintaining nominal operating conditions in the saturated bath at 4.55K (1.35bar) Assuming 100(A) leads, and lead cooling flows required are as follows: For currents below 10(A) The cooling flow is 0.028(g/s) For currents up to 10 (A), The cooling flow increases by 0.000031 (g/s)/(A) up to the peak current ~100(A). Maximum flow of ~ 0.031(g/s)
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.05
6.06.05.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.06
6.06.05.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325(bar).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.07
6.06.05.01
The magnet shall be designed to remove the heat from the coil with supercritical forced flow helium for all operational modes.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.08
6.06.05.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.06.09
6.06.05.01
The magnet shall be able to be warmed up from its operational temperature to 300K within 5days using warm gas
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.07.00
6.06.05.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.07.01
6.06.05.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.07.02
6.06.05.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.07.03
6.06.05.01
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.08.00
6.06.05.01
All electrical connection to the magnet for the main current leads, in instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.08.01
6.06.05.01
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.08.02
6.06.05.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.08.03
6.06.05.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 (nΩ) at 4.55 (K).
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.09.00
6.06.05.01
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: · 60 thermal cycles, · 180 quenches. 30000 power cycles.
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.10.00
6.06.05.01
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit should be taken as a guide for the design process. The actual upper limit the magnet will see in operation will need further analysis and will need to be confirmed by the EIC radiation physics team
02/09/2026
Approved
FALSE

P-IR-MAG-HSR-Q2PR_HC.11.01
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PR_HC.11.02
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PR_HC.11.03
6.06.05.01
nan
02/09/2026
In Process
FALSE

P-IR-MAG-HSR-Q2PR_HC.11.04
6.06.05.01
nan
02/09/2026
In Process
FALSE

IR-MAG-HSR-Q2PR_VC

IR-MAG-HST

IR-MAG-HST-Q1APR_SKQ

IR-MAG-RC1

R-IR-MAG-RC1.01.01
6.04.02.06.01
The magnet design team shall design the RC1 cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.01.02
6.04.02.06.01
The magnet design team shall design the RC1 cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.01.03
6.04.02.06.01
The cryogenics group shall create schematics with the piping and connectors needed to connect the RC1 to the 4.55 K distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.01.04
6.04.02.06.01
The cryogenics group shall provide the piping and accessories necessary to plumb the RC1 to the 4.55 K cryogenic system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.01.05
6.04.02.06.01
The magnet design team shall provide the RC1 design for the cryogenic pipes to connect to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.01.06
6.04.02.06.01
IR System Installation and Final Integration shall fund and schedule welding the final pipe connections from the RC1 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.01.07
6.04.02.06.01
The cryogenics group shall leak check the final pipe connections from the RC1 cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.02.01
6.04.02.06.01
The cryogenics group shall provide schematics with the piping and connectors needed to connect to the RC1 4.55 K pressure relief system to the helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.02.02
6.04.02.06.01
The cryogenics group shall purchase the piping and accessories necessary to connect to the RC1 4.55 K pressure relief system to the helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.02.03
6.04.02.06.01
The cryostat design shall provide appropriately sized helium (He) vent to connect to the RC1 4.55 K pressure relief system to the He capture system, if required.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.02.04
6.04.02.06.01
IR System Installation and Final Integration shall provide funding and scheduling to install RC1 4.55 K pressure relief connections by the appropriate technical support group which satisfies the cryogenics group design.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.02.05
6.04.02.06.01
The cryogenics group shall leak check the final pipe connections from the RC1 cryostat 4.55 K system to the 4.55 K pressure relief system to the Helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.03.01
6.04.02.06.01
The magnet design team shall provide the RC1 design with appropriately sized He vent for a pressure relief system into the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.03.02
6.04.02.06.01
The magnet design team group shall provide the RC1 design with lift plates appropriately sized for the insulating vacuum volume of the cryostat for a pressure relief system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.04.01
6.04.02.06.01
The magnet design team and power supply group shall define the current lead design details for system integration of the Q1ApR, Q1ApR_VC and Q1eR magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.04.02
6.04.02.06.01
The magnet design team shall provide current leads for the RC1 magnets consistent with the agreed upon power supply group design.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.04.03
6.04.02.06.01
The power supply group shall supply the schematics for all cables and connectors needed to power the RC1 magnets and the associated equipments.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.04.04
6.04.02.06.01
The power supply group shall provide all necessary cables to connect with the RC1 cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.04.05
6.04.02.06.01
IR System Installation and Final Integration shall fund and schedule the RC1 cryostat current lead connections in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.04.06
6.04.02.06.01
The power supply group shall test the RC1 current lead connections in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.05.01
6.04.02.06.01
The magnet design team shall provide the RC1 current lead design to the cryogenics group for system integration to meet the operational needs of the magnet and be capable of being cooled with 4.55K cryogenic system with quench protection.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.05.02
6.04.02.06.01
IR System Installation and Final Integration shall fund and schedule the RC1 current lead design connections from the cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.05.03
6.04.02.06.01
The cryogenics group shall leak check the final pipe connections from the RC1 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.06.01
6.04.02.06.01
The magnet design team shall provide the RC1 quench protection design (dump resistors values, switch details, quench heaters, etc.) to the power supply group for systems integration, such that the final connections can be made in the tunnel. The quench protection design should be validated prior to cryostat construction.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.06.02
6.04.02.06.01
The magnet design team shall provide the RC1 quench detection design (voltage, detection time, etc.) to the power supply group for systems integration.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.06.03
6.04.02.06.01
The power supply group shall provide all necessary cabling to go from the power supply to any quench protection/detection equipment needed for the RC1 magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.06.04
6.04.02.06.01
The power supply group shall provide the quench protection/detection system which satisfies the magnet design teams design for the RC1 magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.06.05
6.04.02.06.01
The power supply group shall test the quench protection/detection system for the RC1 magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.06.06
6.04.02.06.01
IR System Installation and Final Integration shall provide funding and scheduling to connect the quench protection/detection system to the RC1.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.08.01
6.04.02.06.01
The cryogenics group shall create schematics showing all the RC1 instrumentation to connect the cryostat to the 4.55 K cryogenic control system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.08.02
6.04.02.06.01
The magnet design team shall provide instrumentation design details required by the RC1 magnets from the cold mass to the 300K terminals\connectors on the vaccum vessel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.08.03
6.04.02.06.01
The cryogenics group shall purchase the wire and connectors necessary to connect the cryostat to the 4.55 K cryogenic control system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.08.04
6.04.02.06.01
The magnet design team shall perform electrical testing to verify that at room temperature the RC1 instrumentation lead connections are capable of meeting operational needs.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.08.05
6.04.02.06.01
The cryogenics group shall install and connect all connections to the cryostat instrumentation, confirm the connections are good and the instrumentation is functioning correctly.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.09.01
6.04.02.06.01
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron and Electron beam pipe in the RC1 cryostat cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.09.02
6.04.02.06.01
The vacuum group shall provide the Hadron and Electron beam pipes to be inserted into the RC1 cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.09.03
6.04.02.06.01
The magnet design team shall install the Hadron and Electron beam pipe into the RC1 cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.10.01
6.04.02.06.01
The magnet design team shall provide a RC1 cold mass design which limits the cross talk between the Hadron and Electron beamlines.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.10.02
6.04.02.06.01
The magnet design team shall perform an independent RC1 cold mass crosstalk test with the magnet(s) powered to their nominal field value to confirm the crosstalk.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.11.01
6.04.02.06.01
The magnet design team shall provide a mechanical connections design between RC1 and the RC2 as well as between RC1 and the Detector.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.11.02
6.04.02.06.01
The magnet design team shall provide the support structure design to account for the adjustability of the final position and alignment and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet, cables, cryogenic connections to the cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.11.03
6.04.02.06.01
The magnet design team shall provide the RC1 cryostat stand ready to install into the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.11.04
6.04.02.06.01
IR System Installation and Final Integration shall fund and schedule the installation of the cryostat on the support structure in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.12.01
6.04.02.06.01
The magnet design team shall provide the volume within the tunnel to be occupied by the RC1.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.12.02
6.04.02.06.01
The magnet design team shall add the fiducial marks positioning for the RC1 allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the RC1 center and its alignment with respect to the HSR and ESR beamline.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.12.03
6.04.02.06.01
The magnet design team shall define the transportation details and fixtures necessary to move the RC1 into the tunnel. (Center of Gravity, Mass, Shock Tolerances, etc..)
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.12.04
6.04.02.06.01
IR System Installation and Final Integration shall provide installation details to ensure the RC1 is aligned in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.12.05
6.04.02.06.01
IR System Installation and Final Integration shall provide funding and scheduling to align the RC1 such that the fiducial marks are located with respect to the install locations provided by the survey group to ensure the RC1 is aligned.
02/09/2026
In Process
FALSE

R-IR-MAG-RC1.12.06
6.04.02.06.01
The physics group shall provide the allocated spatial location based on the lattice for the RC1 cryostat.
02/09/2026
In Process
FALSE

IR-MAG-RC2

R-IR-MAG-RC2.01.01
6.04.02.06.02
The magnet design team shall design the RC2 cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.01.02
6.04.02.06.02
The magnet design team shall design the RC2 cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.01.03
6.04.02.06.02
The cryogenics group shall create schematics with the piping and connectors needed to connect the RC2 to the 4.55 K distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.01.04
6.04.02.06.02
The cryogenics group shall provide the piping and accessories necessary to plumb the RC2 to the 4.55 K cryogenic system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.01.05
6.04.02.06.02
The magnet design team shall provide the RC2 design for the cryogenic pipes to connect to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.01.06
6.04.02.06.02
IR System Installation and Final Integration shall fund and schedule welding the final pipe connections from the RC2 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.01.07
6.04.02.06.02
The cryogenics group shall leak check the final pipe connections from the RC2 cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.02.01
6.04.02.06.02
The cryogenics group shall provide schematics with the piping and connectors needed to connect to the RC2 4.55 K pressure relief system to the helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.02.02
6.04.02.06.02
The cryogenics group shall purchase the piping and accessories necessary to connect to the RC2 4.55 K pressure relief system to the helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.02.03
6.04.02.06.02
The cryostat design shall provide appropriately sized helium (He) vent to connect to the RC2 4.55 K pressure relief system to the He capture system, if required.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.02.04
6.04.02.06.02
IR System Installation and Final Integration shall provide funding and scheduling to install RC2 4.55 K pressure relief connections by the appropriate technical support group which satisfies the cryogenics group design.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.02.05
6.04.02.06.02
The cryogenics group shall leak check the final pipe connections from the RC2 cryostat 4.55 K system to the 4.55 K pressure relief system to the Helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.03.01
6.04.02.06.02
The magnet design team shall provide the RC2 design with appropriately sized He vent for a pressure relief system into the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.03.02
6.04.02.06.02
The magnet design team group shall provide the RC2 design with lift plates appropriately sized for the insulating vacuum volume of the cryostat for a pressure relief system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.04.01
6.04.02.06.02
The magnet design team and power supply group shall define the current lead design details for system integration of the Q1BpR, Q1BpR_SKQ, Q2eR, and the Q2eR_SKQ magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.04.02
6.04.02.06.02
The magnet design team shall provide current leads for the RC2 magnets consistent with the agreed upon power supply group design.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.04.03
6.04.02.06.02
The power supply group shall supply the schematics for all cables and connectors needed to power the RC2 magnets and the associated equipments.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.04.04
6.04.02.06.02
The power supply group shall provide all necessary cables to connect with the RC2 cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.04.05
6.04.02.06.02
IR System Installation and Final Integration shall fund and schedule the RC2 cryostat current lead connections in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.04.06
6.04.02.06.02
The power supply group shall test the RC2 current lead connections in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.05.01
6.04.02.06.02
The magnet design team shall provide the RC2 current lead design to the cryogenics group for system integration to meet the operational needs of the magnet and be capable of being cooled with 4.55K cryogenic system with quench protection.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.05.02
6.04.02.06.02
IR System Installation and Final Integration shall fund and schedule the RC2 current lead design connections from the cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.05.03
6.04.02.06.02
The cryogenics group shall leak check the final pipe connections from the RC2 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.06.01
6.04.02.06.02
The magnet design team shall provide the RC2 quench protection design (dump resistors values, switch details, quench heaters, etc.) to the power supply group for systems integration, such that the final connections can be made in the tunnel. The quench protection design should be validated prior to cryostat construction.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.06.02
6.04.02.06.02
The magnet design team shall provide the RC2 quench detection design (voltage, detection time, etc.) to the power supply group for systems integration.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.06.03
6.04.02.06.02
The power supply group shall provide all necessary cabling to go from the power supply to any quench protection/detection equipment needed for the RC2 magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.06.04
6.04.02.06.02
The power supply group shall provide the quench protection/detection system which satisfies the magnet design teams design for the RC2 magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.06.05
6.04.02.06.02
The power supply group shall test the quench protection/detection system for the RC2 magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.06.06
6.04.02.06.02
IR System Installation and Final Integration shall provide funding and scheduling to connect the quench protection/detection system to the RC2.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.08.01
6.04.02.06.02
The cryogenics group shall create schematics showing all the RC2 instrumentation to connect the cryostat to the 4.55 K cryogenic control system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.08.02
6.04.02.06.02
The magnet design team shall provide instrumentation design details required by the RC2 magnets from the cold mass to the 300K terminals\connectors on the vaccum vessel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.08.03
6.04.02.06.02
The cryogenics group shall purchase the wire and connectors necessary to connect the cryostat to the 4.55 K cryogenic control system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.08.04
6.04.02.06.02
The magnet design team shall perform electrical testing to verify that at room temperature the RC2 instrumentation lead connections are capable of meeting operational needs.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.08.05
6.04.02.06.02
The cryogenics group shall install and connect all connections to the cryostat instrumentation, confirm the connections are good and the instrumentation is functioning correctly.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.09.01
6.04.02.06.02
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron and Electron beam pipe in the RC2 cryostat cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.09.02
6.04.02.06.02
The vacuum group shall provide the Hadron and Electron beam pipes to be inserted into the RC2 cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.09.03
6.04.02.06.02
The magnet design team shall install the Hadron and Electron beam pipe into the RC2 cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.10.01
6.04.02.06.02
The magnet design team shall provide a RC2 cold mass design which limits the cross talk between the Hadron and Electron beamlines.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.10.02
6.04.02.06.02
The magnet design team shall perform an independent RC2 cold mass crosstalk test with the magnet(s) powered to their nominal field value to confirm the crosstalk.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.11.01
6.04.02.06.02
The magnet design team shall provide a mechanical connections design between RC2 and the RC1 as well as between RC2 and the RC3.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.11.02
6.04.02.06.02
The magnet design team shall provide the support structure design to account for the adjustability of the final position and alignment and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet, cables, cryogenic connections to the cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.11.03
6.04.02.06.02
The magnet design team shall provide the RC2 cryostat stand ready to install into the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.11.04
6.04.02.06.02
IR System Installation and Final Integration shall fund and schedule the installation of the cryostat on the support structure in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.12.01
6.04.02.06.02
The magnet design team shall provide the volume within the tunnel to be occupied by the RC2.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.12.02
6.04.02.06.02
The magnet design team shall add the fiducial marks positioning for the RC2 allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the RC2 center and its alignment with respect to the HSR and ESR beamline.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.12.03
6.04.02.06.02
The magnet design team shall define the transportation details and fixtures necessary to move the RC2 into the tunnel. (Center of Gravity, Mass, Shock Tolerances, etc..)
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.12.04
6.04.02.06.02
IR System Installation and Final Integration shall provide installation details to ensure the RC2 is aligned in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.12.05
6.04.02.06.02
IR System Installation and Final Integration shall provide funding and scheduling to align the RC2 such that the fiducial marks are located with respect to the install locations provided by the survey group to ensure the RC2 is aligned.
02/09/2026
In Process
FALSE

R-IR-MAG-RC2.12.06
6.04.02.06.02
The physics group shall provide the allocated spatial location based on the lattice for the RC2 cryostat.
02/09/2026
In Process
FALSE

IR-MAG-RC3

R-IR-MAG-RC3.01.01
6.04.02.06.03
The magnet design team shall design the RC3 Q2pR, Q2pR_HC and the B2eR_VC cold mass to operate at 4.55 K common stainless steel helium vessel which has a cold bore tube.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.01.02
6.04.02.06.03
The magnet design team shall design the RC3 Q2pR, Q2pR_HC and the B2eR_VC cold mass piping and connections including yoke cooling channels to ensure adequate free flow for all operating conditions including quenches.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.01.03
6.04.02.06.03
The cryogenics group shall create schematics with the piping and connectors needed to connect the RC3 cryostat to the 4.55 K distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.01.04
6.04.02.06.03
The cryogenics group shall provide the piping and accessories necessary to plumb the RC3 cryostat to the 4.55 K cryogenic system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.01.05
6.04.02.06.03
The magnet design team shall provide the RC3 cryostat design for the cryogenic pipes to connect to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.01.06
6.04.02.06.03
IR System Installation and Final Integration shall fund and schedule welding the final pipe connections from the RC3 cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.01.07
6.04.02.06.03
The cryogenics group shall leak check the final pipe connections from the RC3 cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.02.01
6.04.02.06.03
The cryogenics group shall provide schematics with the piping and connectors needed to connect to the RC3 4.55 K pressure relief system to the helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.02.02
6.04.02.06.03
The cryogenics group shall purchase the piping and accessories necessary to connect to the RC3 4.55 K pressure relief system to the helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.02.03
6.04.02.06.03
The cryostat design shall provide appropriately sized Helium (He) vent to connect to the RC3 4.55 K pressure relief system to the He capture system, if required.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.02.04
6.04.02.06.03
IR System Installation and Final Integration shall provide funding and scheduling to install RC3 4.55 K pressure relief connections by the appropriate technical support group which satisfies the cryogenics group design.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.02.05
6.04.02.06.03
The cryogenics group shall leak check the final pipe connections from the RC3 cryostat 4.55 K system to the 4.55 K pressure relief system to the Helium capture system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.03.01
6.04.02.06.03
The SMD group shall provide the RC3 cryostat design with appropriately sized Helium vent for a pressure relief system into the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.03.02
6.04.02.06.03
The SMD group shall provide the RC3 cryostat design with lift plates appropriately sized for the insulating vacuum volume of the cryostat for a pressure relief system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.04.01
6.04.02.06.03
The magnet design team and power supply group shall define the current lead design details for system integration of the Q2pR, Q2pR Horizontal Corrector (HC) and the B2eR Vertical Corrector (VC) magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.04.02
6.04.02.06.03
The magnet design team shall provide current leads for the Q2pR, Q2pR_HC and the B2eR_VC magnets consistent with the agreed upon power supply group design.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.04.03
6.04.02.06.03
The power supply group shall supply the schematics for all cables and connectors needed to power the Q2pR, Q2pR_HC and the B2eR_VC magnets and associated equipment.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.04.04
6.04.02.06.03
The power supply group shall provide all necessary cables to connect with the RC3 cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.04.05
6.04.02.06.03
IR System Installation and Final Integration shall fund and schedule the RC3 cryostat current lead connections in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.04.06
6.04.02.06.03
The power supply group shall test the RC3 cryostat current lead connections in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.05.01
6.04.02.06.03
The magnet design team shall provide the RC3 cryostat current lead design to the cryogenics group for system integration to meet the operational needs of the magnet and be capable of being cooled with 4.55K cryogenic system with quench protection.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.05.02
6.04.02.06.03
IR System Installation and Final Integration shall fund and schedule the RC3 cryostat current lead design connections from the cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.05.03
6.04.02.06.03
The cryogenics group shall leak check the final pipe connections from the RC3 cryostat 4.55 K system to the 4.55 K cryogenic distribution system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.06.01
6.04.02.06.03
The magnet design team shall provide the RC3 cryostat quench protection design to the power supply group for systems integration, such that the final connections can be made in the tunnel. The quench protection design should be validated prior to cryostat construction.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.06.02
6.04.02.06.03
The magnet design team shall provide the RC3 cryostat quench detection design to the power supply group for systems integration.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.06.03
6.04.02.06.03
The power supply group shall provide all necessary cabling to go from the power supply to any quench protection/detection equipment needed for the RC3 cryostat magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.06.04
6.04.02.06.03
The power supply group shall provide the quench protection/detection system which satisfies the magnet design teams design for the RC3 cryostat magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.06.05
6.04.02.06.03
The power supply group shall test the quench protection/detection system for the RC3 cryostat magnets.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.06.06
6.04.02.06.03
IR System Installation and Final Integration shall provide funding and scheduling to connect the quench protection/detection system to the RC3 cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.08.01
6.04.02.06.03
The cryogenics group shall create schematics showing all the RC3 cryostat instrumentation to connect the cryostat to the 4.55 K cryogenic control system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.08.02
6.04.02.06.03
The magnet design team shall provide instrumentation design details required by the RC3 cryostat magnets from the cold mass to the 300K terminals\connectors on the vac vessel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.08.03
6.04.02.06.03
The cryogenics group shall purchase the wire and connectors necessary to connect the cryostat to the 4.55 K cryogenic control system.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.08.04
6.04.02.06.03
The magnet design team shall perform electrical testing to verify that at room temperature the RC3 cryostat instrumentation lead connections are capable of meeting operational needs.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.08.05
6.04.02.06.03
The cryogenics group shall install and connect all connections to the cryostat instrumentation, confirm the connections are good and the instrumentation is functioning correctly.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.09.01
6.04.02.06.03
The magnet design team shall define position and alignment values which will be used to set the 300 K position and alignments of the Hadron and Electron beam pipe in the RC3 cryostat cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.09.02
6.04.02.06.03
The vacuum group shall provide the Hadron and Electron beam pipe to be inserted into the RC3 cryostat cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.09.03
6.04.02.06.03
The magnet design team shall install the Hadron and Electron beam pipe into the RC3 cryostat cold mass.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.10.01
6.04.02.06.03
The magnet design team shall provide a RC3 cold mass design which limits the cross talk between the Hadron and Electron beamlines.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.10.02
6.04.02.06.03
The magnet design team shall perform an independent RC3 cold mass crosstalk test with the magnet(s) powered to their nominal field value to confirm the crosstalk.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.11.01
6.04.02.06.03
The magnet design team shall provide a mechanical connections design between RC3 cryostat and the RC2 cryostat as well as the beam pipe at the rear side of RC3.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.11.02
6.04.02.06.03
The magnet design team shall provide the support structure design to account for the adjustability of the final position and alignment and CAD model to be utilized by the magnet group. They will ensure the design does not interfere with magnet, cables, cryogenic connections to the cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.11.03
6.04.02.06.03
The magnet design team shall provide the RC3 cryostat stand ready to install into the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.11.04
6.04.02.06.03
IR System Installation and Final Integration shall fund and schedule the installation of the cryostat on the support structure in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.12.01
6.04.02.06.03
The magnet design team shall provide the volume within the tunnel to be occupied by the RC3 cryostat.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.12.02
6.04.02.06.03
The magnet design team shall add the fiducial marks positioning for the RC3 cryostat allowing the center of the magnet and magnets beamlines to be located. It should identify the location of the RC3 cryostat center and its alignment with respect to the HSR and ESR beamline.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.12.03
6.04.02.06.03
The magnet design team shall define the transportation details and fixtures necessary to move the RC3 cryostat into the tunnel. (Center of Gravity, Mass, Shock Tolerances, etc..)
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.12.04
6.04.02.06.03
The survey group shall provide installation details to ensure the RC3 cryostat is aligned in the tunnel.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.12.05
6.04.02.06.03
IR System Installation and Final Integration shall provide funding and scheduling to align the RC3 cryostat such that the fiducial marks are located with respect to the install locations provided by the survey group to ensure the RC3 cryostat is aligned.
02/09/2026
In Process
FALSE

R-IR-MAG-RC3.12.06
6.04.02.06.03
The physics group shall provide the allocated spatial location based on the lattice for the RC3 cryostat.
02/09/2026
In Process
FALSE

IR-VAC : IR Vacuum System (WBS 6.06.02.04)

F-IR-VAC.01
6.06
The EIC IR beam pipe aperture shall be minimized but shall not be the limiting aperture in the machine.
09/30/2025
Approved
FALSE

P-IR-VAC.2
6.06.02.04
Any special aperture requirements or aperture information shall be provided by and\or approved by physics.
05/16/2025
Approved
FALSE

F-IR-VAC.02
6.06
The EIC IR vacuum systems shall be designed to minimize any direct and backscattered synchrotron radiation at the detector to a level consistent with required detector measurements.
09/30/2025
Approved
FALSE

F-IR-VAC.03
6.06
The EIC IR central vacuum chamber shall be designed to minimize secondary particle production.
09/30/2025
Approved
FALSE

P-IR-VAC.5
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-2 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.6
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-1 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.7
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR common vac shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.11
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-3 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.10
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-3 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.12
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-2 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

F-IR-VAC.04
6.06
The EIC IR Vacuum chamber impedance shall be small enough to prevent any undesirable beam dynamic issues and adverse heating of vacuum components, for the beam parameters listed in the MPT [EIC-SEG-RSI-005].
09/30/2025
Approved
FALSE

P-IR-VAC.1
6.06.02.04
The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.
05/16/2025
Approved
FALSE

P-IR-VAC.12
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-2 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

F-IR-VAC.05
6.06
The EIC IR vacuum pressure from the IP to ends of the final focusing cryostats shall be low enough to ensure the beam gas background for the experiment after the system has been properly conditioned is acceptable for detector operation.
09/30/2025
Approved
FALSE

P-IR-VAC.5
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-2 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.6
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-1 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.7
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR common vac shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.11
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-3 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.10
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-3 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.12
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-2 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.3
6.06.02.04
The magnetic permeability for vacuum equipment shall be approved by beam physics.
05/16/2025
Approved
FALSE

P-IR-VAC.4
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-3 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.9
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-2 shall be <5x10-9 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.13
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-1 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.14
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Forward vac-1 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.15
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Forward vac-2 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.16
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Forward vac-3 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

P-IR-VAC.17
6.06.02.04
The vacuum stability (upper pressure limit) shall be TBD Torr
05/16/2025
In Process
FALSE

P-IR-VAC.18
6.06.02.04
On 15 m (or one vacuum section) on each side of the SRF cavities shall be processed to class ISO 5.
05/16/2025
Approved
FALSE

P-IR-VAC.19
6.06.02.04
Beam current is an input for the interlock system. The threshold level shall be identified and adjusted during the system commissioning.
05/16/2025
Reviewed
FALSE

P-IR-VAC.20
6.06.02.04
The central beam pipe temperature limit (warm gas bakeout) shall be +110 C.
05/16/2025
Approved
FALSE

P-IR-VAC.21
6.06.02.04
The inner beam pipe ( +/- 1.5 m around IP) shall have a gold coating of 5 um.
05/16/2025
Approved
FALSE

IR-VAC EXTERNALS
Requirements who's parents are in other sub-systems.

P-IR-VAC.8
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-1 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

IR-INST : IR Instrumentation System (WBS 6.06.02.05)

IR-INST-ESR_BPM : ESR BPM Pickups in the IR (WBS 6.06.02.05)

P-IR-INST-ESR_BPM.1
6.06.02.05
The total number of ESR BPM pickups in the IR shall be 24
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.2
6.06.02.05
For the 2nC pilot bunch, BPM pickups shall be designed to provide the required measurement resolution over the range of H=+/-50, V=+/-10 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.3
6.06.02.05
For the design bunch, BPM pickups shall be designed to provide the required measurement resolution over the range of H=+/-20, V=+/-5 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.4
6.06.02.05
The BPM pickup shall be designed so to ensure the maximim temperatures of the components (due to heating by the beam) are acceptable for reliability and operations
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.5
6.06.02.05
The BPM pickups shall be designed to be baked to 200 C for large number of thermal cycles (list locations where applicable)
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.6
6.06.02.05
The BPM pickup installation misalignment tolerance shall be for warm BPM=50 & cold BPM=500 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.7
6.06.02.05
The BPM pickup misalignement variance tolerance (upper limit) due to thermal cycling of the ESR BPMs in the IR shall be 20 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.10
6.06.02.05
The ESR shall have slow global orbit correction BPM pickups at the specified locations within +162m to -162m of IP6 ESR_IR_BPM_corrector-10-20-2023.docx
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.11
6.06.02.05
The BPM electronics shall have a turn-by-turn capability Y
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.12
6.06.02.05
For the 2 nC pilot bunches, single turn measurement resolution shall be Hmax=Vmax<100 Hdrift=Vdrift<50 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.13
6.06.02.05
For the 2 nC pilot bunches, 1,000 turns average measurement resolution shall be Hmax=Vmax<30 Hdrift=Vdrift<30 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.14
6.06.02.05
For stored beam, turn-by-turn low charge, 2 nC bunches, measurement resolution shall be Hmax=Vmax<30 Hdrift=Vdrift<30 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.15
6.06.02.05
For stored beam, turn-by-turn high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<10 Hdrift=Vdrift<10 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.16
6.06.02.05
For stored beam, 1,000 turns average, high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<5 Hdrift=Vdrift<5 um
05/16/2025
In Process
FALSE

P-IR-INST-ESR_BPM.17
6.06.02.05
For stored beam, 1 second average, high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<1 Hdrift=Vdrift<1 um
05/16/2025
In Process
FALSE

IR-INST-ESR_FEEDBACK : ESR Transverse Orbit Feedback near the IR (WBS 6.06.02.05)

IR-INST-ESR_LM : ESR Beam Loss Monitors in the IR (WBS 6.06.02.05)

IR-INST-HSR_BPM : HSR BPM Pickups in the IR (WBS 6.06.02.05)

P-IR-INST-HSR_BPM.1
6.06.02.05
Existing RHIC stripline BPMs that are reused in the IR shall be shielded (sleeved) to avoid overheating the BPMs and their cables in the RHIC cryostats
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.2
6.06.02.05
New hadron cryobutton BPMs shall be placed in available locations as close as possible to the existing RHIC stripline BPMs inside RHIC cryostats which are being reused
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.3
6.06.02.05
New hadron BPMs shall be placed in new, additional locations as required HSR_IR_BPM_cor_location-10-20-2023.xlsx
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.4
6.06.02.05
New hadron cryobutton BPMs shall be able to operate a with minimal load on the cryogenic system at temperatures of 2 K
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.5
6.06.02.05
The new and existing BPMs shall compatibly interface with the new coated sleeves that are being added to the HSR cold vacuum pipe.
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.6
6.06.02.05
Each new cryobutton BPM shall have the same measurement plane(s) as the closest existing RHIC stripline BPM or be upgraded to dual plane
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.7
6.06.02.05
The BPM mechanical centers shall be aligned with nearby quadrupole magnetic center within at least 0.15 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.8
6.06.02.05
The BPMs at the arc focusing quads shall be capable of providing a reliable measurement of the horizontal orbit position of +/-21 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.9
6.06.02.05
The BPMs at the arc defocusing quads shall be capable of providing a reliable measurement of the horizontal orbit position of +/-10 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.10
6.06.02.05
The BPMs at the arc focusing quads for measurements of the orbit position at a bunch charge of 5nC. [5.9] shall be capable to provide reliable measurements in a range of +/ 21 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.11
6.06.02.05
The BPMs at the arc defocusing quads shall be capable to provide reliable measurement of the orbit position in the range +/ 10 mm at a bunch charge of 5nC. [5.9] 10 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.12
6.06.02.05
A number of BPMs shall sighted on either side of IP6 where there is a different (nontraditional) beam pipe aperture. These BPM will not be the standard HSR cryoBPM. The number of non standard BPMs in this region shall be TBD
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.13
6.06.02.05
The nonstandard HSR BPM's in this region shall be compatible with the non standard beam pipe aperture.
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.14
6.06.02.05
The locations of the non standard HSR BPM's in the nonstandard beam pipe aperture shall be. TBD
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.15
6.06.02.05
The non standard HSR BPM's shall have a measurement resolution of TBD units
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.16
6.06.02.05
The expected radial offset at each of the non standard HSR BPMs in the IR, for each of the various HSR running modes shall be 0 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.17
6.06.02.05
There shall be warm HSR button BPM pickups at the following locations TBD
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.18
6.06.02.05
The warm HSR button BPM pickups shall have a measurement resolution of TBD
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.19
6.06.02.05
The warm HSR button BPM pickups at the following locations Dimensions and performance requirements are TBD
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.20
6.06.02.05
A hadron BPM shall be installed between B0pF and B0ApF with the dedicated purpose of measuring the hadron crabbing angle of 12.5 mrad
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.21
6.06.02.05
The BPM electronics for the pickups located in the HSR arcs (defined in this case as from Q5 to Q5) need to be able to provide measurements during the store with an considerably shifted beam radial orbit. The BPMs here shall be able to measure a maximum radial orbit shift range of +\- 21 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.22
6.06.02.05
There shall be no requirement on BPMs to perform individual measurements for each bunch, when more than one bunch is present. One position measurement per turn which includes all bunches combined will be the narrowest (turn-by-turn) mode of sampling.
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.23
6.06.02.05
The BPM RMS resolution for measuring one turn orbit for a 5 nC bunch at injection parameters shall not be larger than 2 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.24
6.06.02.05
TheBPM RMS resolution for a 44 nC bunch at injection parameters for measuring one turn orbit shall not be larger than 0.2 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.25
6.06.02.05
The BPM system shall be capable of delivering an array of consecutive single turn position measurements at a rate of 1 array per second with 1024 turns
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.26
6.06.02.05
The BPM system shall be capable of delivering average orbit measurements at a continuous rate of 1 Hz
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.27
6.06.02.05
The RMS resolution, averaged over a 1 second period, for a 5 nC bunch at injection parameters for measuring the average orbit shall not be larger than 0.2 mm
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.28
6.06.02.05
The RMS resolution , averaged over a 1 second period, for a 44 nC bunch at acceleration ramp parameters for measuring the average orbit shall not be larger than 20 um
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.29
6.06.02.05
The resolution, averaged over a 1 second period, at highest average current parameters for measuring the average orbit shall not be larger than 20 um
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.30
6.06.02.05
The BPM system shall require a subset of BPMs that operate the fast orbit feedback having a bandwidth of at least 1 kHz
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.31
6.06.02.05
The BPM system shall be able to provide average orbit measurements to an orbit feedback system having a bandwidth of at least 1 Hz
05/16/2025
In Process
FALSE

P-IR-INST-HSR_BPM.32
6.06.02.05
The electronics associated with the hadron BPM pickup installed between B0pF and B0ApF, used for measuring the hadron crabbing angle, shall have the necessary bandwidth and characteristics to measure a crabbing angle of 12.5 mrad
05/16/2025
In Process
FALSE

IR-INST-HSR_FEEDBACK : HSR Transverse Orbit Feedback near the IR (WBS 6.06.02.05)

IR-INST-HSR_LM : HSR Beam Loss Monitors in the IR (WBS 6.06.02.05)

IR-PROT : IR Machine Protection System (WBS 6.06.03)

IR-CONT : IR Controls System (WBS 6.07.02)

IR-CONT-ALGNMNT : IR Controls Crab Alignment (WBS 6.07.02)

IR-CONT-FEEDBACK : IR Controls Fast Orbit Feedback (WBS 6.07.02)

IR-CONT-ORBIT : IR Controls Transverse IR Orbit Optimization (WBS 6.07.02)

IR-RF : IR RF System (WBS 6.08)

IR-RF-CRAB_HSR : IR HSR CRAB RF System (WBS 6.08.02.01)

IR-RF-CRAB_HSR-2ND_HARMONIC_MODE : IR HSR CRAB RF 2nd Harmonic Mode (WBS 6.08.02.01)

IR-RF-CRAB_HSR-FUNDAMENTAL_MODE : IR HSR CRAB RF Fundamental Mode (WBS 6.08.02.01)

IR-RF-CRAB_HSR_SRFCM : IR HSR CRAB RF Super Conducting Cryogenic Module (SCFCM) (WBS 6.08.04.04)

IR-RF-CRAB_HSR_SRFCM-FUNDAMENTAL_MODE : IR HSR CRAB RF SCFCM Fundamental Mode (WBS 6.08.04.04)

IR-RF-CRAB_ESR : IR ESR CRAB RF System (WBS 6.08.04.05)

IR-RF-CRAB_ESR-FUNDAMENTAL_MODE : IR ESR CRAB RF Fundamental Mode (WBS 6.08.02.01)

IR-RF-CRAB_ESR_SRFCM : IR ESR CRAB RF Super Conducting Cryogenic Module (SCFCM) (WBS 6.08.04.05)

IR-RF-CRAB_ESR_SRFCM-FUNDAMENTAL_MODE : IR ESR CRAB RF SCFCM Fundamental Mode (WBS 6.08.04.05)

IR-RF-CCAV:197

R-IR-RF-CCAV:197.01.01
Infrastructure shall provide supply and return headers within the tunnel for Low Conductivity Water (LCW) to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.01.02
Infrastructure shall provide Low Conductivity Water (LCW) to/from the common supply/return header(s) to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.01.03
RF Pre-Installation shall provide all distribution design, materials, and installation of the piping (or hoses) for Low Conductivity Water (LCW) from the tunnel header to the Cryomodules to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.01.04
SRF Systems shall provide Low Conductivity Water (LCW) supply/return receptacles at the Cryomodule to facilitate installation by RF Pre-Installation.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.01.05
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.01.06
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.02.01
SRF Systems shall provide instrument air receptables to be utilized by TBD.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.02.02
TBD shall provide an instrument air supply system for the required SRF Systems Cryomodule components in the tunnel.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.02.03
TBD shall provide all routing design, installation, and control logic to the instrument air receptacles on the SRF Systems Cryomodule.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.02.04
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.02.05
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.03.01
RF Pre-Installation shall provide the helium blowdown system design, materials (including helium gas), and installation labor to any water circuit required on the SRF cryomodule inside the tunnel.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.03.02
SRF Systems shall provide a helium blowdown receptacle to be utilized by Pre-Installation.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.01
The 2K Cryogenics Distribution System shall provide all distribution design, materials, and installation of the helium piping for the 2K helium distribution system inside the tunnel to the Cryomodules and clean beamline components to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.02
The 2K Cryogenics Distribution System shall provide Supercritical Helium to the supply header(s) to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.03
The 2K Cryogenics Distribution System shall return sub-atmospheric Helium from the return header utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.04
SRF Systems shall provide Helium supply and return receptacle(s) at the cryomodule and clean beamline components to be utilized by the 2K Cryogenics Distribution System.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.04.01
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.04.02
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.04.03
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.05
SRF Systems shall provide calculations and analyses necessary for sizing the piping and supply by the 2K Cryogenics Distribution.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.06
The 2K Cryogenics Distribution System shall provide all distribution design, materials, and installation of the helium piping for the helium relief system inside the tunnel to the cryomodule and clean beamline components to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.07
SRF Systems shall provide a helium pressure relief valve with common relief header receptacle to be utilized by the 2K Cryogenics Distribution Relief System.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.08
SRF Systems shall provide calculations and analyses necessary for sizing the relief piping by the 2K Cryogenics Distribution relief header.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.09
The 2K Cryogenics Distribution System shall provide all distribution design, materials, and installation of the helium piping for the guard vacuum inside the tunnel to the cryomodule to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.10
SRF Systems shall provide a helium pressure relief valve with common guard vacuum receptacle to be utilized by the 2K Cryogenics Distribution System.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.11
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.12
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.04.13
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.05.01
Cryogenics Controls shall provide all cabling, routing design, installation, and control logic to the cryomodule control receptacles at the SRF Systems Cryomodules.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.05.02
SRF Systems shall provide helium liquid level monitor receptacles to be utilized by Cryogenics Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.05.03
SRF Systems shall provide pressure monitor receptacles to be utilized by Cryogenics Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.05.04
SRF Systems shall provide temperature monitors receptacles to be utilized by Cryogenics Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.05.05
SRF Systems shall provide heater control receptacles to be utilized by Cryogenics Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.05.06
SRF Systems shall provide cryogenic control valve receptacles to be utilized by Cryogenics Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.05.07
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.06.01
SRF Systems shall provide Beamline All Metal Gate Valve receptacles to be utilized by HSR Instrument Air.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.06.02
SRF Systems shall provide Beamline Ion pump receptacles to be utilized by HSR Vacuum System.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.06.03
SRF Systems shall provide Vacuum pressure receptacles to be utilized by HSR Vacuum System.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.06.04
TBD shall provide all cabling, routing design, installation, and control logic to the cryomodule vacuum control receptacles at the Cryomodules to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.06.05
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.07.01
SRF Systems shall provide RF feedback and control receptacles to be utilized by RF Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.07.02
SRF Systems shall provide temperature monitors receptacles to be utilized by RF Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.07.03
SRF Systems shall provide tuner control receptacles to be utilized by RF Controls.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.07.04
RF Controls shall provide all cabling, routing design, installation, and control logic to the cryomodule RF control receptacles at the Cryomodules to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.07.05
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.08.01
High Power RF shall design and provide a coaxial line to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.08.02
SRF Systems shall provide a receptacle for the High Power RF coaxial line to be utilized by High Power RF.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.08.03
Accelerator Installation shall provide the schedule and funding for the coaxial line installation to the SRF Cryomodule.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.08.04
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.09.01
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.09.02
nan
02/09/2026
In Process
FALSE

R-IR-RF-CCAV:197.09.03
Beamline Components shall provide conditioned FPC to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.10.01
SRF Systems shall provide fiducialization points on the Cryomodule relating back to the electromagnetic center of the beamline to be utilized by Accelerator Installation.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.10.02
RF Pre-Installation shall arrange the installation location/area to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.10.03
Accelerator Installation shall provide the schedule and funding for the SRF Cryomodule installation and app technician support (lag bolts/rough alignment/pedestal/etc...).
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.10.04
The Mechanical Design Group shall model the tunnel to define the required spatial locations to be utilized by SRF Systems.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.11.01
SRF Systems shall provide beamline components to be installed on the beamline between SRF cryomodules
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.11.02
SRF Systems shall provide a receptacle for the beamline connection on either end of the SRF beamline space, to be utilized by RF System
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.11.03
SRF Systems shall provide beamline components to be installed on the beamline between the SRF beamline space and other magnets
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.11.04
HSR Vacuum System shall provide installation labor of the SRF Systems Cryomodule to the beamline.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.11.05
RF System shall ensure that during installation the SRF Systems Cryomodule cleanliness does not degrade.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.11.06
RF System shall ensure that the beamline components surrounding the SRF Systems Cryomodule does not degrade the performance of the SRF Systems Cryomodule during its lifetime.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.12.01
Cryomodule Verification shall ensure TJNAF has a bunker that can high power test the SRF Systems Cryomodule.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.12.02
RF Pre-Installation shall ensure BNL has a bunker that can high power test the SRF Systems Cryomodule.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.13.01
TBD shall provide a vacuum system for the insulating vacuum of the SRF Systems Cryomodule in the tunnel to be utilized by SRF Systems
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.13.02
TBD shall provide all cabling, routing design, installation, and control logic to the insulating vacuum control receptacles at the SRF Systems Cryomodule.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.14.01
TBD shall provide a vacuum system for the beamline vacuum of the SRF Systems Cryomodule in the tunnel to be utilized by SRF Systems
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.14.02
TBD shall provide all cabling, routing design, installation, and control logic to the beamline vacuum control receptacles at the SRF Systems Cryomodule.
01/15/2026
In Process
FALSE

R-IR-RF-CCAV:197.14.03
nan
02/09/2026
In Process
FALSE

IR-AS : IR Accelerator Systems

IR-CRYO : Cryogenics Requirements

IR-CRYO-IR10

IR-CRYO-IR10-2KDIST

P-IR-CRYO-IR10-2KDIST.01
6.09.04
All distribution system helium valves operating sub-atmospherically shall have a test port with a VCR connection.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.02
6.09.04
All distribution system helium valves shall be bellows-sealed.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.03
6.09.04
The Cryodistribution System shall be designed such that the pressure drop of each circuit is no more than 5%.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.04
6.09.04
The design of the Cryodistribution System shall minimize thermal acoustic oscillations (TAOs) by orienting each dead leg of piping to promote establishment of a static thermal gradient.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.05
6.09.04
The Cryogenic Distribution System design shall minimize cavity vibrations.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.06
6.09.04
The Cryodistribution System design shall not condense moisture from the atmosphere in the tunnel where drainage to a safe location is not accessible.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.07
6.09.04
The design of the Cryodistribution System shall eliminate the possibility of vapor locks in piping distributing any 2-phase fluids.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.08
6.09.04
To decouple commissioning schedules, the Cryodistribution System design shall allow cooldown to nominal operating conditions regardless of the number of CMs attached.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.09
6.09.04
The Cryodistribution System shall support continuous 4.5K refrigeration of the entire group of nominally 2K loads during times of cold compressor maintenance.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.10
6.09.04
The cryodistribution system Shield Return line from the cryomodules to the satellite refrigerator shall maintain a temperature of 80K and a pressure of 1.8 bar.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.11
6.09.04
The cryodistribution system sub-atmospheric line from the cryomodules to the satellite refrigerator shall maintain a temperature of 4K and a pressure of 30 mbar.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.12
6.09.04
The cryodistribution system shall provide piping to run the following lines from the satellite refrigerator to the exsisting lines in the tunnel: H-line: 80 K, 15.9 bar U-line: 10 K, 1.3 bar
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.13
6.09.04
The new 2K cryodistribution H-line shall maintain a temperature of 80 K and a pressure of 15.7 bar when connecting to the existing tunnel H-line.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.14
6.09.04
The new 2K cryodistribution U-line shall maintain a temperature of 10 K and a pressure of 1.5 bar when connecting to the existing tunnel U-line.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.15
6.09.04
The design shall add no additional margin to the heat leak for the 2 K sub atmospheric return line.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.16
6.09.04
A recooler with an outlet temperature of 4.55 K is required on the S-line.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.17
6.09.04
The recooler baths shall be supplied by the S-Line which will supply helium at a maximum pressure and temperature of 3.5 bar and 6 K The recooler baths supplied by the S-Line shall have a maximum supply pressure and temperature of 3.5 bar and 6 K
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.18
6.09.04
The LHe supply line shall have a maximum velocity of TBD
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.19
6.09.04
The Cryodistribution System design shall allow CMs to be added and removed without compromising the Cryodistribution System insulating vacuum.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.20
6.09.04
Each segment of the insulating vacuum space shall have valves and ports as required for maintenance of the insulating vacuum.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.21
6.09.04
All valves and piping joints shall where possible shall be in accessible indoor locations for manual actuation, leak checking, and maintenance work. If the valves are to be sited in conditions other than this their location shall be approved by the EIC CRYO group.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.22
6.09.04
During a pressure relief event due to rupture of the internal process piping, the pressure at any point within the insulating vacuum space shall not exceed 15 psi.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.23
6.09.04
The design of the ambient-temperature flanged connections on any sub atmospheric process piping shall prevent any air ingress or contamination in the case of an O-ring failure.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.24
6.09.04
A guard vacuum is required for all subatmospheric relief valves and other applicable locations.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.25
6.09.04
The distribution shall have pressure and temperature sensors located as shown on P&ID _____
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.26
6.09.04
The distribution shall have a liquid level sensor on the recooler
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.27
6.09.04
The distribution system shall have a heater at the R-line interface to the SA-line for commissioning the satellite plants. The heater shall be 620 W.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.28
6.09.04
The recooler shall have a heater (2kW at IR02 and 1kW at IR06 and IR10).
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.29
6.09.04
The distribution system shall have an equal percentage control valve on the S-line and on/off valves for other distribution system circuits.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.30
6.09.04
Bayonet connections for the 5 interface lines (listed below): Bayonets/piping connection location tolerances - in general, U-tubes are 90% fabricated prior to determining final locations of CMs. Once locations are finalized, bayonet positions are measured, allowing final u-tube dimensions to fit the critical tolerances required for smooth insertion/extraction.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.31
6.09.04
The cryogenic system shall have the capacity to handle cooling requirements for both the low temperature thermal intercepts and high temperature thermal radiation shield
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.32
6.09.04
The cryomodules shall be cooled down and filled with LHe at the beginning of each run.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.33
6.09.04
The cryomodules shall be warmed up to ambient temperature (300K) at the end of each run.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.34
6.09.04
The cryomodules shall be cooled down and kept at their operating temperature for the duration of each run.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.35
6.09.04
All physical connections to cryomodules shall be made when the system is at room temperature.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.36
6.09.04
The cryomodule/cryodistribution system interface components shall be designed to accommodate a warmup to at least 300K at least one time per year
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.37
6.09.04
The cryodistribution system shall circulate warm clean gas to scrub/cleanout prior to cooldown
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.38
6.09.04
The cryomodules shall circulate warm clean gas to scrub/cleanout prior to cooldown
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.39
6.09.04
During warmup, the cryogenic 2.0 K circuits shall be pressurized to positive pressure, and the cold compressors will be bypassed.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.40
6.09.04
Heaters shall be used for cryomodule warm up.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.41
6.09.04
The cryo module design shall be such that it can be warmed up and removed during a run.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.42
6.09.04
No operation shall be carried out on a cryomodules in a single region at 2K if any other cryomodules are still at 4.5K.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.43
6.09.04
The cryomodules shall be capable of Independent warmup/cooldown.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.44
6.09.04
The Cryomodule shall include cross-over valves to provide a means controlling each Cryomodule individually.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.45
6.09.04
A guard vacuum shall be supplied to the cryomodules at the sub-atmospheric connection and for the reliefs.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.46
6.09.04
A control valve or orifice on the downstream/exhaust side shall be used to control the flow through the FPCs
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.47
6.09.04
Each cryomodule shall contain a 2K-4K Refrigeration recovery heat exchanger.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.48
6.09.04
Each Cryomodule shall include a control heater(s).
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.49
6.09.04
The maximum flow required for cryomodule cooldown at IR02 is
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.50
6.09.04
The maximum flow required for cryomodule cooldown at IR06 is
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.51
6.09.04
The maximum flow required for cryomodule cooldown at IR10 is
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.52
6.09.04
The total budget available for cooldown from the central plant via the S header shall be 20 g/s of 4.5K,3 bar He. The central plant supply line via the header shall have a flow rate of 20 g/s.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.53
6.09.04
The 4.5K central plant supply line via the header shall have a flow rate of 20 g/s.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.54
6.09.04
The 4.5K central plant supply line via the header shall have a maximum supply pressure of 3 bar.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.55
6.09.04
The cooldown return flow from the satellite plants shall be processed to be sent back to central plant at 300 K.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.56
6.09.04
Assuming the 2K flow is loaded to minimum turndown:.e.g.. __ g/s
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.57
6.09.04
The Cryomodule 4.5K supply shall come directly from the S-supply from the central plant
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.58
6.09.04
The Cryomodules shall be designed to accommodate the maximum budgeted heat loads plus an additional margin of
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.59
6.09.04
Each cryomodule at IR10 (even those farthest from the satellite plant) shall have a maximum temperature of 2.0K.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.60
6.09.04
The temperature stability in the cryomodules circuits shall be
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.61
6.09.04
The temperature stability of the 2K bath shall be
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.62
6.09.04
The saturated vapor pressure in the 2K bath shall be
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.63
6.09.04
IR10: S-Line - Primary Supply: 4.9 K, 3.3 bar. SA-Line: Subatmospheric Return: 30 mbar, 3.7K CR-Line: Shield/FPC Return: 1.8 bar, 80K
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.64
6.09.04
The S-Line Primary Supply at IR10 shall have a maximum supply temperate of 4.9K.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.65
6.09.04
The S-Line Primary Supply at IR10 shall have a maximum supply pressure of 3.3 bar.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.66
6.09.04
The SA-Line Subatmospheric Return at IR10 shall have a maximum supply temperate of 3.7K.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.67
6.09.04
The SA-Line Subatmospheric Return at IR10 shall have a maximum supply pressure of 30 mbar.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.68
6.09.04
The CR-Line Shield and FPC Return at IR10 shall have a maximum supply temperate of 80K.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.69
6.09.04
The CR-Line Shield and FPC Return at IR10 shall have a maximum supply pressure of 1.8 bar.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.70
6.09.04
The S-line Header pressures shall be stable to within ± TBD.X mbar
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.71
6.09.04
The Shield return Header pressures shall be stable to within ± TBD.X mbar
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.72
6.09.04
The FPC/Cooldown Header pressures shall be stable to within ± TBD.X mbar
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.73
6.09.04
The Sub atmospheric line Header pressures shall be stable to within ± TBD.X mbar
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.74
6.09.04
S-line Header pressures shall be stable within ± xx.y mbar Shield return Header pressures shall be stable within ± xx.y mbar FPC/Cooldown Header pressures shall be stable within ± xx.y mbar Sub atmospheric line Header pressures shall be stable within ± xx.y mbar
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.75
6.09.04
The pressure in the FPC/Shield Return shall be greater than or equal to TBD
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.76
6.09.04
The Power Coupler Return shall be combined with the Shield Return and they will return to the satellite plant in one stream.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.77
6.09.04
The design shall be capable of "parking" all of the cryomodules at 4.5K
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.78
6.09.04
In 4.5K Mode the Cryomodule return is valved to connect to the 4.5K R-header of HSR distribution system to central plant
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.79
6.09.04
All reliefs in the tunnel shall be connected to a common relief header that will vent to an area outside the tunnel.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.80
6.09.04
The relief header in the tunnel shall be sized to be large enough to not create backpressure in the cryomodules.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.81
6.09.04
The cryomodule pressure protection shall include a 4 bara burst disk and 2bara reliefs.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.82
6.09.04
All Cryomodules shall be installed to within 1/4 inch of the "ideal" locations per appropriate CAD installation drawings.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.83
6.09.04
Instrumentation Interfaces: Wiring, Junction boxes/panels
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.84
6.09.04
Instrumentation and valves list: Pressure, Temperatures, Levels, switches, Valves, Vacuum, Heaters
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.85
6.09.04
Electrical interfaces: Size, number of pins, etc.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.86
6.09.04
The Instrumentation required to operate each SC magnet (coil voltage taps, current leads voltage taps, thermal sensors, Liquid sensors etc.) shall be furnished by the EIC SC magnets group in consultation with the EIC cryogenics team and the EIC controls team.
05/16/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.87
6.09.04
To minimize remanent fields, no magnetic components, such as flanges and bolts, shall be used in the design of the SC magnet cryogenic systems.
05/16/2025
In Process
FALSE

IR-CRYO-IR10-2KSAT

P-IR-CRYO-IR10-2KSAT.01
6.09.02
A standby cooling water tower pump shall be provided.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.02
6.09.02
The cooling water supply availability shall have an uptime of 100% per year.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.03
6.09.02
The cooling water cleanliness shall be capable of maintaining a piping longevity of 20 years.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.04
6.09.02
The cooling water piping material shall be chosen such that no corrosion occurs within 20 years of commissioning.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.05
6.09.02
The maximum differential cooling water pressure total in the building shall be 45 psi.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.06
6.09.02
Electricity availability shall be 99.997%.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.07
6.09.02
The voltage differential in the supply shall be within +/- 10% of the rated voltage.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.08
6.09.02
The power supply for all satellite plant refrigerator equipment shall be an independent reliable power source.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.09
6.09.02
The roof of the control room shall have a minimum floor loading of TBD lbs/ft2.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.10
6.09.02
The design of the building shall accommodate all the material handling accomodations for commissioning and operation as defined on drawing #SK-CRB-IR10 BLDG PLAN - 23OCT24 including, but not limited to, permanent cranes, access for portable cranes, aisle sizes.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.11
6.09.02
The equipment footprint for the building shall be in accordance with drawing #SK-CRB-IR10 BLDG PLAN - 23OCT24.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.12
6.09.02
The minimum concrete strength shall be 4000 psi.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.13
6.09.02
The Infrastructure building design shall include all vehicle access needed to accommodate the filling of gas and liquid storage tanks.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.14
6.09.02
All internal components of the coldbox shall be easily accessible via an internal ladder while working within the cold box.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.15
6.09.02
Access to the inside of the cold box shall be via a manway of at least 28 inches in diameter and be accessible from the ground.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.16
6.09.02
A flanged plate with a minimum diameter of 8 inches shall be provided at the top of the cold box for air ventilation while working within the cold box.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.17
6.09.02
The access platforms shall be placed on top of the cold box and shall be designed to carry a load of at least 150 lbs. per square foot.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.18
6.09.02
All vacuum pump ports shall be a minimum size of ISO 250.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.19
6.09.02
All vacuum valve ports of vessels with multi-layer insulation shall be properly screened to prevent inlet blockages.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.20
6.09.02
The cold box back-up vacuum valve connection port shall be at least 150 ISO.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.21
6.09.02
Should there be a failure of any component in the cold box, the cold box vacuum vessel shall be equipped with a relief device sized to handle 125% of the flow from the cold box high pressure supply at the maximum design capacity.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.22
6.09.02
The cold box shall have Dual carbon beds at 80 K.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.23
6.09.02
The 80K Dual carbon beds shall have a regeneration period of less than 2 days.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.24
6.09.02
The 80K Dual carbon beds shall reduce flow impurities in the system to less than 1 ppmV, given an inlet impurity level of 100 ppmv.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.25
6.09.02
The 80K Dual carbon beds shall have a minimum bed life of 1 month
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.26
6.09.02
The 80K Dual carbon beds pressure drop through the adsorber beds shall not exceed 0.5 atm
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.27
6.09.02
The final filtration stage shall have a residual contamination of oil of less than 1 ppb by volume
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.28
6.09.02
The exit dewpoint of the high pressure helium stream after the dual carbon beds shall be TBD K or better. 80 °C
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.29
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by ASME BPVC VIII as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.30
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by B31.3 Process Piping as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.31
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by 10 CFR 851 as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.32
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by 10 CFR 1926 as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.33
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by 10 CFR 1021 as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.34
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by NFPA as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.35
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by ASHRAE as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.36
6.09.02
The cold box expander inlet filters shall be capable of filtering particles of 10 microns or larger.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.37
6.09.02
The cold box expander bearing gas supply and gas brake circuit filters shall be capable of filtering particles of 10 microns or larger.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.38
6.09.02
The low pressure inlet of warm compressors shall have a 304SS temporary strainer with 300 mesh 300% O, 1/16" PERF and the screen must be easily removable for cleaning.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.39
6.09.02
All the cryogenic equipment shall be designed to handle no less than 100 thermal cycles.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.40
6.09.02
All process equipment joints and interfaces such as flanges, mechanical joints, and valve stem seals shall have a maximum allowable leakage rate of 1x10^-6 atm cc/s.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.41
6.09.02
All satellite refrigerator process piping shall have a maximum allowable leakage rate of 1x10^-9 atm cc/s.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.42
6.09.02
All distribution system process piping shall have a maximum allowable leakage rate of 1x10^-9 atm cc/s.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.43
6.09.02
All process equipment shall have a maximum allowable leakage rate of 1x10^-6 atm cc/s.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.44
6.09.02
The piping shall be designed so that pooling oil will flow downward toward compressors and away from the cold box at all times
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.45
6.09.02
The Satellite refrigerator design shall mitigate all instances of standing liquid within the system.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.46
6.09.02
All internal process piping shall be designed with operating and design temperatures in the range of 3.5 to 310 K
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.47
6.09.02
The turbo-expander shall have a performance history in helium service of at least 20000 hrs.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.48
6.09.02
All satellite refrigerator helium valves shall be bellows-sealed.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.49
6.09.02
All satellite refrigerator helium valves operating sub-atmospherically shall have a test port with a VCR connection.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.50
6.09.02
The Coldbox vacuum vessel relief device shall be sized to handle 125% of the flow from the high pressure supply at the maximum design capacity.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.51
6.09.02
All water-cooled equipment as defined by the EIC Cryogenics group shall not exceed a temperature of 305K.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.52
6.09.02
All utilities (instrument air, water, electricity, etc.) provided to the cryogenics satellite plant shall be in accordance with the parameters laid out in the latest revision of EIC Infrastructure Utilities Requirements Document, Doc. No. EIC-IFD-RSI-012.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.53
6.09.02
The cold box vacuum shall be able to be pumped down from atmospheric pressure to its operational pressure of 1e-5 Torr or better within 24 hrs.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.54
6.09.02
The cold box shall be designed to pumpdown from 4.5K to 2K.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.55
6.09.02
The cold box shall be designed to complete a half thermal cycle (warm up or cooldown) from 3.5K to 300K or vice versa within 12 hrs.
05/16/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.56
6.09.02
The cold compressors shall be capable of a minimum possible turndown mode of 20% below the nominal flowrate.
05/16/2025
Approved
FALSE

IR-DRIFT

IR-DRIFT-ESR

IR-DRIFT-ESR-DRIFT(B0APF)

P-IR-DRIFT-ESR-DRIFT(B0APF).01.06
TBD
The physical length of the drift space in the iron bore shall be less than or equal to 0.6(m). The iron drift bore design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B0APF).01.09
TBD
The drift space shall be designed to accomodate a beam tube inner bore radius when warm, which is greater than or equal to 63(mm). The inner radius of the drift space must incorporate appropriate allowances for any structure required between the beam pipe and the iron bore surface for support. The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B0APF).01.11.00
TBD
The drift space shall be designed to fit within the following constraints:
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B0APF).01.11.01
TBD
The drift space, iron coldmass and the associated cryostat (designated FC-1) shall be designed to fit within a cylindrical volume having an Outside diameter less than 1.822(m) Length less than 4.47(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B0APF).03.03
TBD
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
10/30/2025
Not Applicable
FALSE

P-IR-DRIFT-ESR-DRIFT(B0APF).09.00
TBD
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
11/05/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B0APF).10.00
TBD
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
10/30/2025
In Process
FALSE

IR-DRIFT-ESR-DRIFT(B1APF)

P-IR-DRIFT-ESR-DRIFT(B1APF).01.06
TBD
The physical length of the drift space in the iron bore shall be less than or equal to 1.5(m). The iron drift bore design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1APF).01.09
TBD
The drift space shall be designed to accomodate a beam tube inner bore radius when warm, which is greater than or equal to 63(mm). The inner radius of the drift space must incorporate appropriate allowances for any structure required between the beam pipe and the iron bore surface for support. The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1APF).01.11.00
TBD
The drift space shall be designed to fit within the following constraints:
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1APF).01.11.01
TBD
The drift space, iron coldmass and the associated cryostat (designated FC-4) shall be designed to fit within a cylindrical volume having an Outside diameter less than 2.324(m) Length less than 3.966(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1APF).03.03
TBD
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
10/30/2025
Not Applicable
FALSE

P-IR-DRIFT-ESR-DRIFT(B1APF).09.00
TBD
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
11/05/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1APF).10.00
TBD
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
10/30/2025
In Process
FALSE

IR-DRIFT-ESR-DRIFT(B1PF)

P-IR-DRIFT-ESR-DRIFT(B1PF).01.06
TBD
The physical length of the drift space in the iron bore shall be less than or equal to 3(m). The iron drift bore design needs to comply with all the geometery constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1PF).01.09
TBD
The drift space shall be designed to accomodate a beam tube inner bore radius when warm, which is greater than or equal to 63(mm). The inner radius of the drift space must incorporate appropriate allowances for any structure required between the beam pipe and the iron bore surface for support. The magnet design needs to comply with all the geometry constraints set forth in EIC Interaction region constraints Document number[EIC-SEG-RSI-103].
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1PF).01.11.00
TBD
The drift space shall be designed to fit within the following constraints:
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1PF).01.11.01
TBD
The drift space, iron coldmass and the associated cryostat (designated FC-3) shall be designed to fit within a cylindrical volume having an Outside diameter less than 2.172(m) Length less than 3.248(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
10/30/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1PF).03.03
TBD
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
10/30/2025
Not Applicable
FALSE

P-IR-DRIFT-ESR-DRIFT(B1PF).09.00
TBD
The magnet is expected to sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles, 180 quenches 30000 power cycles.
11/05/2025
In Process
FALSE

P-IR-DRIFT-ESR-DRIFT(B1PF).10.00
TBD
Over its planned life of 30(yrs) the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
10/30/2025
In Process
FALSE

IR-ESR : Interaction Region ESR

F-IR-ESR.01
6.06
The IR lattice elements in the forward and rear final focus cryostats shall have large enough apertures to accommodate a minimum 13.5σ spread in x (horizontal direction) and a 22σ spread in y (vertical direction) with an RMS beam size based on the design emittances as specified in the MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

F-IR-ESR.02
6.06
The IR electron lattice design shall adjust the phase advance between the IP and the arc on each side to support the correction of chromatic effects.
08/20/2025
Approved
FALSE

F-IR-ESR.03
6.06
The IR electron lattice elements shall provide apertures in the near-IR quadrupoles large enough to transmit the synchrotron radiation created by magnets on the other side of the IP.
08/20/2025
Approved
FALSE

F-IR-ESR.04
6.06
The IR electron lattice machine elements shall be designed to accommodate a beam divergence of 220µrad vertically and horizontally.
08/20/2025
Approved
FALSE

F-IR-ESR.05
6.06
The IR electron lattice design shall accommodate a luminosity monitor to detect hard γ-rays downstream of the IP with respect to the electrons (Rear Side).
08/20/2025
Approved
FALSE

F-IR-ESR.06
6.06
The IR electron lattice shall incorporate a Compton polarimeter between the upstream spin rotator and the upstream crab cavity.
08/20/2025
Approved
FALSE

F-IR-ESR.07
6.06
The IR electron lattice shall provide space for detectors to tag scattered electrons on the downstream side of the IP (Rear Side).
08/20/2025
Approved
FALSE

F-IR-ESR.08
6.06
The IR electron lattice shall incorporate a dipole just downstream of the IP to bend the beam away from the HSR line, for the purpose of luminosity monitoring and detection of off-energy electrons.
08/20/2025
Approved
FALSE

F-IR-ESR.09
6.06
The forward side ESR crab cavity shall not interfere with the ZDC or the HSR lattice elements.
08/20/2025
Approved
FALSE

F-IR-ESR.10
6.06
The detector background shall be kept below levels consistent with the detector requirements.
08/20/2025
Approved
FALSE

F-IR-ESR.11
6.06
At the IP of the electron lattice the dispersion, its derivative and alpha shall all be 0, and the beta βx βy be chosen to deliver the colliding beam parameters set forth in the MPT [EIC- SEG-RSI-005].
08/20/2025
Approved
FALSE

F-IR-ESR.12
6.06
The IR electron lattice design shall create a multiple of 180 deg horizontal phase advance between the two crab cavities.
08/20/2025
Approved
FALSE

F-IR-ESR.13
6.06
It shall be possible to remove any horizontal/transverse coupling introduced due to the detector solenoid and ESR ring tilt in the IR electron lattice.
08/20/2025
Approved
FALSE

F-IR-ESR.14
6.06
The IR electron lattice design shall be able to zero the Horizontal dispersion ηx = 0 in the long spin rotator solenoid module at 18 GeV.
08/20/2025
Approved
FALSE

F-IR-ESR.15
6.06
For spin rotation purposes the IR electron lattice shall use two solenoid modules (“long” and “short”) each consisting of two solenoids with a number of quadrupoles between them. They shall be capable of rotating the electron Spin to the longitudinal direction at the IP, for all beam energies within the required range as set forth in in the MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

F-IR-ESR.16
6.06
The IR electron lattice design shall eliminate any coupling introduced by the spin rotator solenoids.
08/20/2025
Approved
FALSE

F-IR-ESR.17
6.06
The IR electron lattice design shall remove the dependence of spin on the horizontal amplitude of the particles.
08/20/2025
Approved
FALSE

IR-ESR-CONT

IR-ESR-CRYO

IR-ESR-INST

IR-ESR-MAG

IR-ESR-MAG-LSR

IR-ESR-MAG-SSR

IR-ESR-PROT

IR-ESR-RF

IR-ESR-VAC

IR-HSR : Interaction Region HSR

F-IR-HSR.01
6.06
The hadron beamline lattice elements through the IR shall have a large enough aperture throughout to accommodate 1. A minimum of 10σ spread in x and y of the incoming hadron beam for all store energies and beam emittances set forth in the MPT [EIC-SEG-RSI-005]. 2. A minimum of 7σ spread in x and 6σ spread in y of the incoming hadron beam, with a 2.5um normalized emittance at beam injection energy.
08/20/2025
Approved
FALSE

F-IR-HSR.02
6.06
The apertures of the downstream, near-IR magnets, within the IR hadron lattice, shall be large enough to transport a 4 mrad cone of neutral particles from the IP without obstruction.
08/20/2025
Approved
FALSE

F-IR-HSR.03
6.06
The apertures of the forward side near-IR magnets, within the IR hadron lattice, shall be large enough to transport particles having a transverse momentum of up to 1.3 GeV/c with a 275GeV proton beam without obstruction.
08/20/2025
Approved
FALSE

F-IR-HSR.04
6.06
The apertures of the forward side, near-IR magnets, within the IR hadron lattice, shall accommodate off beam-axis detectors which can detect forward scattered protons with a transverse momentum of 0.2GeV to 1.3GeV at a proton beam energy of 275GeV.
08/20/2025
Approved
FALSE

F-IR-HSR.05
6.06
The forward side HSR shall not have any magnets which physically interfere with the ZDC or the ESR crab cavities.
08/20/2025
Approved
FALSE

F-IR-HSR.06
6.06
The first magnet on the forward side of the detector in the IP hadron lattice shall be designed to accommodate all necessary detector components to reconstruct tracks up to 20 mrad off the hadron beam axis.
08/20/2025
Approved
FALSE

F-IR-HSR.07
6.06
The first magnet on the forward side of the detector in the IP hadron lattice shall be a dipole magnet that is sufficiently strong to act as a spectrometer for detecting interaction products from the hadron beams foreseen in the MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

F-IR-HSR.08
6.06
The IR hadron lattice design shall accommodate the crossing angle required by the hadron beam at the IP to generate 25 mrad crossing angle for the colliding beams.
08/20/2025
Approved
FALSE

F-IR-HSR.09
6.06
The downstream near-IR magnets of the IR hadron lattice design shall be designed to bend the beam away from the electron line.
08/20/2025
Approved
FALSE

F-IR-HSR.10
6.06
The IR hadron lattice design shall provide the capability to correct the HSR orbit vertically and horizontally to remove the effect of unwanted kicks imparted to the beam by entering the Detector solenoid off axis.
08/20/2025
Approved
FALSE

F-IR-HSR.11
6.06
The lattice design must ensure that the dipoles in the downstream near IR region of the IR hadron lattice design shall be such that the beam is restored to the correct trajectory (common to all configurations) as it exits the last near-IR magnet.
08/20/2025
Approved
FALSE

F-IR-HSR.12
6.06
The design of the IR hadron lattice elements shall prevent any stray field from the hadron magnets affecting the electron beam.
08/20/2025
Approved
FALSE

F-IR-HSR.13
6.06
At the IP of the hadron lattice the dispersion, its derivative and alpha shall all be 0, and the beta βx βy shall be chosen to deliver the colliding beam parameters set forth in the MPT [EIC-SEG-RSI-005].
08/20/2025
Approved
FALSE

F-IR-HSR.14
6.06
The Phase advance between the crab cavities shall be as close as feasible to 180 degrees to limit dynamic aperture issues.
08/20/2025
Approved
FALSE

F-IR-HSR.15
6.06
The IR hadron lattice design shall include a “Siberian Snake” consisting of four helical dipoles on one side of the IP Parallel to the RHIC 7DUMMY in RHIC sector 11.
08/20/2025
Approved
FALSE

F-IR-HSR.16
6.06
The IR hadron lattice design shall include spin rotators consisting of four helical dipoles on both sides of the IP.
08/20/2025
Approved
FALSE

F-IR-HSR.17
6.06
The IR hadron lattice shall incorporate a p-C polarimeter between a spin rotator and the IP.
08/20/2025
Approved
FALSE

IR-HSR-CONT

IR-HSR-CRYO

IR-HSR-INST

IR-HSR-PROT

IR-HSR-RF

IR-HSR-VAC

IR-INF : IR Infrastructure

IR-INT : IR Systems Integration

IR-MPS

IR-MPS-GENERAL

F-IR-MPS-GENERAL.01
6.06
All MPS required for the IR shall be included in the ESR and HSR protection and beam abort systems (see ESR&HSR requirement documents [5.9] and [5.10]).
10/03/2025
Approved
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.01
6.04.04.03.01.02
The diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.02
6.04.04.03.01.02
The length shall be 2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.03
6.04.04.03.01.02
The materials shall be C / Al / Cu
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.04
6.04.04.03.01.02
The energy deposited during abort shall be 320 kJ
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.05
6.04.04.03.01.02
The frequency of thermal cycle shall be 1 hour
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.06
6.04.04.03.01.02
The window thickness shall be tbd mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.07
6.04.04.03.01.02
The window material shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.01
6.04.04.03.01.02
The Length shall be 50 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.02
6.04.04.03.01.02
The Internal diameter shall be 90 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.03
6.04.04.03.01.02
The Temperature sensors shall be yes
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.04
6.04.04.03.01.02
The BPMs shall be 4
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.05
6.04.04.03.01.02
The Correctors shall be 4
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.06
6.04.04.03.01.02
The Corrector PS shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.07
6.04.04.03.01.02
The power supply accuracy shall be tbd
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.08
6.04.04.03.01.02
The Cooling / pumping shall be yes
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.01
6.04.04.03.01.02
The deflection shall be 2 mrad
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.02
6.04.04.03.01.02
The length shall be 1.2 m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.03
6.04.04.03.01.02
The power supply shall be 1600 A
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.04
6.04.04.03.01.02
The power supply accuracy shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.05
6.04.04.03.01.02
The Y-chamber aperture shall be 36 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.06
6.04.04.03.01.02
May need to add additional window requirements for other leg of Lambertson magnet TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.01
6.04.04.03.01.02
The gradient shall be 17 T/m
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.02
6.04.04.03.01.02
The power supply shall be 1600 A
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.03
6.04.04.03.01.02
The power supply accuracy shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.04
6.04.04.03.01.02
The length shall be 70 cm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.05
6.04.04.03.01.02
The aperture radius shall be 50 mm
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.01
6.04.04.03.01.02
The number of kickers shall be 6
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.02
6.04.04.03.01.02
The Rise time shall be 900 ns
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.03
6.04.04.03.01.02
The Fall time shall be NA sec
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.04
6.04.04.03.01.02
The flat top time shall be 13 us
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.05
6.04.04.03.01.02
The waveshape shall be trap
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.06
6.04.04.03.01.02
The painting shall be vertical
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.07
6.04.04.03.01.02
The maximum field shall be 0.12 T
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.08
6.04.04.03.01.02
The total deflection shall be 16 mrad
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.09
6.04.04.03.01.02
The maximum current shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.10
6.04.04.03.01.02
The maximum voltage shall be TBD
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.11
6.04.04.03.01.02
The inductance with cable shall be TBD (uH)
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.12
6.04.04.03.01.02
The Max rep rate shall be 100 kV/pC
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.13
6.04.04.03.01.02
The flat top repeatability shall be NA Hz
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.14
6.04.04.03.01.02
The flatness of flat top/pulse form shall be 1 %
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.16
6.04.04.03.01.02
The cooling type shall be w (W,A)
02/09/2026
In Process
FALSE

P-ESR-MPS-EXT_KICK.15
6.04.04.03.01.02
The beam abort kicker shall be tbd %
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.01
6.04.04.03.02.02
The location (Section) shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.02
6.04.04.03.02.02
The dimension in W shall be tbd (ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.03
6.04.04.03.02.02
The dimension in L shall be tbd (ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.04
6.04.04.03.02.02
The dimension in H shall be tbd (ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.05
6.04.04.03.02.02
The num magnets shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.06
6.04.04.03.02.02
The mag gap shall be tbd (cm)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.07
6.04.04.03.02.02
The rise time shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.08
6.04.04.03.02.02
The fall time shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.09
6.04.04.03.02.02
The flat top time shall be tbd (sq ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.10
6.04.04.03.02.02
The waveshape shall be tbd (sq ft)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.11
6.04.04.03.02.02
The flat top repeatability shall be tbd (sec)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.12
6.04.04.03.02.02
The uniformity of the flattop shall be tbd (sec)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.13
6.04.04.03.02.02
The deflecting Angle shall be tbd (sec)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.14
6.04.04.03.02.02
The rep rate spec shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.15
6.04.04.03.02.02
The output voltage Spec shall be tbd (Hz)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.16
6.04.04.03.02.02
The output current spec shall be tbd (Volts)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.17
6.04.04.03.02.02
The inductance with cable shall be tbd (Amps)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.18
6.04.04.03.02.02
The cooling type shall be tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.01
6.04.04.03.02.02
The number of kickers shall be 5
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.02
6.04.04.03.02.02
The Rise time shall be 900 ns
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.03
6.04.04.03.02.02
The Fall time shall be NA sec
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.04
6.04.04.03.02.02
The flat top time shall be 13 us
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.05
6.04.04.03.02.02
The waveshape shall be trap
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.06
6.04.04.03.02.02
The painting shall be horizontal
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.07
6.04.04.03.02.02
The maximum field shall be TBD T
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.08
6.04.04.03.02.02
The total deflection shall be TBD mrad
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.09
6.04.04.03.02.02
The maximum current shall be 20 kA
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.10
6.04.04.03.02.02
The maximum voltage shall be 33.3 kV
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.11
6.04.04.03.02.02
The inductance with cable shall be TBD (uH)
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.12
6.04.04.03.02.02
The Max rep rate shall be 1 pulse per minut
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.13
6.04.04.03.02.02
The flat top repeatability shall be +10 / -20 %
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.14
6.04.04.03.02.02
The flatness of flat top/pulse form shall be 0.45 mod
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.15
6.04.04.03.02.02
Beam abort kicker tbd
02/09/2026
In Process
FALSE

P-HSR-MPS-ABORT_KICK.16
6.04.04.03.02.02
The cooling type shall be water
02/09/2026
In Process
FALSE

P-HSR-MPS-DUMP_BLK.01
6.04.04.03.02.02
The dimensions shall be 40 x 10 mm
02/09/2026
In Process
FALSE

P-HSR-MPS-DUMP_BLK.02
6.04.04.03.02.02
The length shall be 0.5 / 2.6 / 2 m
02/09/2026
In Process
FALSE

P-HSR-MPS-DUMP_BLK.03
6.04.04.03.02.02
The materials shall be C-C / Gr/ SS
02/09/2026
In Process
FALSE

P-HSR-MPS-DUMP_BLK.04
6.04.04.03.02.02
The energy deposited during abort shall be 3.5 MJ
02/09/2026
In Process
FALSE

P-HSR-MPS-DUMP_BLK.05
6.04.04.03.02.02
The frequency of thermal cycle shall be 1 hour
02/09/2026
In Process
FALSE

P-HSR-MPS-DUMP_BLK.06
6.04.04.03.02.02
The window thickness shall be tbd mm
02/09/2026
In Process
FALSE

P-HSR-MPS-DUMP_BLK.07
6.04.04.03.02.02
The window material shall be tbd tbd
02/09/2026
In Process
FALSE

P-IR-VAC.8
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-1 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

F-IR-MPS-GENERAL.02
6.06
All collimation required for the IR shall be included in the ESR and HSR collimation systems, see the ESR & HSR requirement documents [EIC-SEG-RSI-002] and [EIC-SEG- RSI-003].
10/03/2025
Approved
FALSE

P-IR-VAC.8
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-1 shall be <1x10-10 Torr
05/16/2025
Reviewed
FALSE

IR-SC : IR Superconducting Magnets

Detector Systems Requirements

General, functional and performance requirements associated with the Detector Systems of the Electron Ion Collider.

Name
WBS
Description
Updated
Status
TBD
DET : Detector System (WBS 6.10)

G-DET.1
6.10
The EIC detector system shall be capable to detect all reaction products, related to the scattered electron, the scattered parton, and the remnant proton/ion, such that the impact of incomplete kinematic coverage on the respective science is minimized.
05/16/2025
Approved
FALSE

F-DET-COMP.3
6.10.09
The DAQ subsystem shall be designed to operate continuously, independent of the state of the other detector subsystems.
05/16/2025
Approved
FALSE

F-DET-TRAK.1
6.10.03
The tracking system must provide a low detection threshold for pions and kaons.
05/16/2025
Approved
FALSE

P-DET-TRAK-BAR.2
6.10.03
The barrel tracking system shall provide a low material budget: < 5% X0.
05/16/2025
Approved
FALSE

P-DET-TRAK.1
6.10.03
The tracking system must provide a minimum pT of 100 MeV π, 130 MeV K.
05/16/2025
Approved
FALSE

F-DET-TRAK.2
6.10.03
The tracking system must provide high hermicity in exclusive and diffractive channels.
05/16/2025
Approved
FALSE

P-DET-TRAK-BAR.1
6.10.03
The barrel tracking system shall provide a momentum resolution < 5%.
05/16/2025
Approved
FALSE

P-DET-TRAK-BAR.3
6.10.03
The barrel tracking system shall provide a momentum resolution of σp/p ~ 0.05%⨯p+0.5% in the rapidity region between -1 to 1.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.1
6.10.03
The backward tracking system shall provide coverage in rapidity region between -3.5 to -1.0.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.2
6.10.03
The backward tracking system shall provide a momentum resolution of σp/p ~ 0.05%⨯p+1.0% in the rapidity region between -2.5 to -1.0.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.3
6.10.03
The backward tracking system shall provide a momentum resolution of σp/p ~ 0.10%⨯p+2.0% in the rapidity region between -3.5 to -2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.4
6.10.03
The backward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 20 μm in the rapidity region between -2.5 to -1.0.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.5
6.10.03
The backward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 40 μm in the rapidity region between -3.5 to -2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.1
6.10.03
The forward tracking system shall provide coverage in rapidity region between -1.0 to 3.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.2
6.10.03
The forward tracking system shall provide a momentum resolution of σp/p ~ 0.05%⨯p+1.0% in the rapidity region between 1.0 to 2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.4
6.10.03
The forward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 20 μm in the rapidity region between 1.0 to 2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.3
6.10.03
The forward tracking system shall provide a momentum resolution of σp/p ~ 0.10%⨯p+2.0% in the rapidity region between 2.5 to 3.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.5
6.10.03
The forward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 40 μm in the rapidity region between 2.5 to 3.5.
05/16/2025
Approved
FALSE

F-DET.2
6.10
The EIC central detector shall cleanly identify the electron-quark and electron-gluon scattering process to high efficiency by a combination of tracking, particle identification detectors and calorimeters.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.1
6.10.05
System shall cover pseudo rapidity down to -3.5.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.2
6.10.05
Energy resolution shall be s(E)/E ~ (2-3)%/sqrt(E) + (1-2)%
05/16/2025
Approved
FALSE

P-DET.3
6.10
The electromagnetic calorimeter in the central detector shall be capable of providing a resolution of s(E)/E ~ 10%/sqrt(E) + (1-3)% in the barrel and forward region and s(E)/E ~ 2%/sqrt(E) + (1-3)% in the backward region.
05/16/2025
Approved
FALSE

P-DET.2
6.10
The EIC central solenoid magnet combined with tracking detectors shall be capable of providing momentum resolution to a level of spT/pT (%) = 0.05pT + 0.5 in the barrel region and to 0.1pT + 1 in the forward and backward region.
05/16/2025
Approved
FALSE

P-DET.9
6.10
The EIC central detector shall allow an electron-hadron separation with efficiency > 90% and a purity > 80%.
05/16/2025
Approved
FALSE

F-DET.3
6.10
The EIC central solenoid magnet shall provide the means to momentum-analyze the charged particles associated with the hadrons produced in electron-quark / electron-gluon scattering process.
05/16/2025
Approved
FALSE

P-DET.2
6.10
The EIC central solenoid magnet combined with tracking detectors shall be capable of providing momentum resolution to a level of spT/pT (%) = 0.05pT + 0.5 in the barrel region and to 0.1pT + 1 in the forward and backward region.
05/16/2025
Approved
FALSE

F-DET.4
6.10
The EIC central detector system shall allow for particle identification of pions, kaons and protons over a wide range of momentum in the barrel, forward endcap and backward endcap regions.
05/16/2025
Approved
FALSE

P-DET.9
6.10
The EIC central detector shall allow an electron-hadron separation with efficiency > 90% and a purity > 80%.
05/16/2025
Approved
FALSE

P-DET.10
6.10
The EIC central detector system shall have the resolution of 3s separation for particle identification of pions, kaons and protons with momenta up to 10 GeV/c in the barrel region, up to 50 GeV/c in the forward endcap region, and up to 7 GeV/c in the backward endcap region.
05/16/2025
Approved
FALSE

F-DET.5
6.10
The EIC central detector shall allow for heavy flavor and other long-living particle measurements through a vertex resolution.
05/16/2025
Approved
FALSE

P-DET.4
6.10
The impact parameter resolution for heavy flavor measurements enabled by the vertex tracker shall be capable of providing a vertex resolution sxy of level 10/pT x 5 mm.
05/16/2025
Approved
FALSE

F-DET.6
6.10
The EIC central detector shall allow for separation of single-photons from neutral-pion decay into two photons over a wide region in momentum.
05/16/2025
Approved
FALSE

P-DET.8
6.10
The EIC central detector shall allow for separation of single-photons from neutral-pion decay into two photons, for momenta up to 10 GeV and to a level of TBD.
05/16/2025
Approved
FALSE

F-DET.7
6.10
The EIC far-backward detector shall complement the central detector in the low- Q² electron scattering region below 1 GeV².
05/16/2025
Approved
FALSE

P-DET.7
6.10
The acceptance of the far-backward electron detection shall be able to reach 0.0001 GeV < Q² < 0.1 GeV².
05/16/2025
Approved
FALSE

F-DET.9
6.10
The hadron acceptance shall be sufficient to identify spectators and proton/ion remnants for electron scattering processes with far-forward particles.
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.1
6.10.06
Must cover pseudo rapidity range up to at least 3.5.
05/16/2025
Approved
FALSE

P-DET-MAG.8
6.10.07
The EIC detector magnet must be consistent with the cryogenic capability of the supply.
05/16/2025
Approved
FALSE

P-DET.6
6.10
The angular acceptance of the far-forward detection shall be capable of providing up to 20 mrad for charged particles and 4.5 mrad for neutrons.
05/16/2025
Approved
FALSE

F-DET.8
6.10
The forward hadron detection shall provide sufficent energy resolution to identify the electron-scattering kinematics for those DIS cases where it must be determined from remnant hadron detection.
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.2
6.10.06
Shall have energy resolution s(E)/E ~ 50%/sqrt(E) + a 10 % constant term.
05/16/2025
Approved
FALSE

P-DET.5
6.10
The hadronic calorimeter in the central detector shall be capable of providing a resolution of s(E)/E ~ 50%/sqrt(E) + 10% in the forward region.
05/16/2025
Approved
FALSE

F-DET.10
6.10
The EIC far-forward detector shall measure proton/ion remnants with momenta up to less than 1% different from the proton/ion beam momentum.
05/16/2025
Approved
FALSE

G-DET.2
6.10
The interaction region and detector system shall allow electron-ion collisions over the full energy range (√s = 29 GeV to 141 GeV), polarized beams, and a range of ion beams (√s = 29 GeV to 89 GeV), and allow measurements of luminosity and polarizations. The hadron polarimeters can be located at a different ring location.
05/16/2025
Approved
FALSE

F-DET.1
6.10
The EIC detector shall be capable to operate over the full range of Center-Of-Mass energy (√s = 29 GeV to 141 GeV), at full luminosity, and for all ion species.
05/16/2025
Approved
FALSE

G-DET.3
6.10
The EIC shall be upgradable with a second interaction region and detector system.
05/16/2025
Approved
FALSE

G-DET.4
6.10
The detector shall be installed in one of two available interaction points for the EIC, currently selected as IP-6.
05/16/2025
Approved
FALSE

G-DET.5
6.10
The central detector shall consist of a barrel augmented by a forward endcap and a backward endcap region forming the central detector to cover the rapidity range h between -4 and 4 for the measurements of electrons, photons, hadrons and jets.
05/16/2025
Approved
FALSE

G-DET.6
6.10
The central detector shall be augmented with detectors in the far backward region to measure scattered electrons at small scattering angles.
05/16/2025
Approved
FALSE

G-DET.7
6.10
The central detector shall be augmented with detectors in the far forward region to measure proton and ion remnants at small scattering angles.
05/16/2025
Approved
FALSE

G-DET.8
6.10
The polarimetry and luminosity detectors shall measure the electron and proton beam polarization and monitor the instantaneous collision luminosities.
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.1
6.10.11
The luminosity detectors shall be composed of a Pair Spectrometer (PS) with 2 stations (above and below zero degree line) with tracking layers in front, and a direct photon CAL along the zero degree line.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.1
6.10.11
The PS CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E) .
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.2
6.10.11
The PS CALs, direct CAL, and trackers shall all provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.3
6.10.11
The PS CAL dimensions shall be 18 [cm] in X , 18 [cm] in Y, and 18 [cm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.4
6.10.11
The PS CAL readout granularity shall be 3 [mm] in X, 3 [mm] in Y, and 3 [mm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.5
6.10.11
The PS tracker dimensions shall cover the transverse face of the calorimeter with no acceptance gaps.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.7
6.10.11
The direct photon CAL dimensions is expected to be similar to the PS CAL
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.6
6.10.11
The direct photon CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E).
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.8
6.10.11
The direct photon CAL readout granularity is expecte to be more course grained than the PS CAL
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.2
6.10.11
The PS must measure the energy and position of e+e- pairs from bremsstrahlung conversions. The direct photon CAL must measure the energy of the large bremsstrahlung flux while mitigating the high rates of background synchrotron radiation.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.1
6.10.11
The PS CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E) .
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.2
6.10.11
The PS CALs, direct CAL, and trackers shall all provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.3
6.10.11
The PS CAL dimensions shall be 18 [cm] in X , 18 [cm] in Y, and 18 [cm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.4
6.10.11
The PS CAL readout granularity shall be 3 [mm] in X, 3 [mm] in Y, and 3 [mm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.5
6.10.11
The PS tracker dimensions shall cover the transverse face of the calorimeter with no acceptance gaps.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.7
6.10.11
The direct photon CAL dimensions is expected to be similar to the PS CAL
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.6
6.10.11
The direct photon CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E).
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.8
6.10.11
The direct photon CAL readout granularity is expecte to be more course grained than the PS CAL
05/16/2025
Approved
FALSE

G-DET.9
6.10
The detector and its sub-systems will be functionally integrated with one another, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-ANC-OFFMO.1
6.10.11
OMD will be integrated into the accelerator vacuum system.
08/06/2025
Approved
FALSE

P-DET-ANC-OFFMO.1
6.10.11
OFFM tracker shall have granularity of 500um (pixels) with charge-sharing to achieve spatial resolution < 20um per hit.
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.2
6.10.11
OFFM will have 2 layers per station
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.3
6.10.11
OFFM will have 2 stations , separated by 2m
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.4
6.10.11
OFFM system dimensions will be 10[cm] in X and 20 [cm] in Y (to be determined)
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.8
6.10.11
The OMDs need cooling of ~60 Watts per active layer,
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.5
6.10.11
OFFM tracker will have timing resolution X<35ps
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.9
6.10.11
OMD layers should be movable in X and Y and extractable to the home position during the injection with a prediction of … [TBD]
08/05/2025
Approved
FALSE

F-DET.11
6.10
The detector and its sub-systems will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-TRAK.3
6.10.03
The tracking system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-TRAK.2
6.10.03
The tracking system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-TRAK.4
6.10.03
The tracking system shall provide a gas mixing system for gaseous detectors.
05/16/2025
Approved
FALSE

F-DET.12
6.10
The detector and its sub-systems will require adequate infrastructure capabilities (i.e. crane capacity, floor loading, physical space, etc.) to effectively support operations and maintenance.
05/16/2025
Approved
FALSE

F-DET.14
6.10
The sub-systems and their support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-TRAK.3
6.10.03
The tracking system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-TRAK.4
6.10.03
The tracking system shall provide a gas mixing system for gaseous detectors.
05/16/2025
Approved
FALSE

P-DET.11
6.10
A gap of at least 10 cm must be provided between the interior face of the Hadron endcap and the adjacent face of the central detector.
05/16/2025
Approved
FALSE

P-DET.1
6.10
The EIC central detector shall require a region free of interaction region magnets and other large collider equipment of at least 4.5 m in the backward and 5m in the forward direction around the interaction point.
05/16/2025
Approved
FALSE

P-DET.12
6.10
A gap of at least 10 cm must be provided between the interior face of the Lepton endcap and the adjacent face of the central detector.
05/16/2025
Approved
FALSE

F-DET.13
6.10
The configuration of the sub-systems within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

F-DET.15
6.10
A structural support infrastructure must be provided that supports the weight of the detectors and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

G-DET.10
6.10
The detector systems must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET.11
6.10
The detector and its sub-systems will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-TRAK.3
6.10.03
The tracking system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-TRAK.2
6.10.03
The tracking system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-TRAK.4
6.10.03
The tracking system shall provide a gas mixing system for gaseous detectors.
05/16/2025
Approved
FALSE

F-DET.12
6.10
The detector and its sub-systems will require adequate infrastructure capabilities (i.e. crane capacity, floor loading, physical space, etc.) to effectively support operations and maintenance.
05/16/2025
Approved
FALSE

F-DET.14
6.10
The sub-systems and their support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-TRAK.3
6.10.03
The tracking system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-TRAK.4
6.10.03
The tracking system shall provide a gas mixing system for gaseous detectors.
05/16/2025
Approved
FALSE

P-DET.11
6.10
A gap of at least 10 cm must be provided between the interior face of the Hadron endcap and the adjacent face of the central detector.
05/16/2025
Approved
FALSE

P-DET.1
6.10
The EIC central detector shall require a region free of interaction region magnets and other large collider equipment of at least 4.5 m in the backward and 5m in the forward direction around the interaction point.
05/16/2025
Approved
FALSE

P-DET.12
6.10
A gap of at least 10 cm must be provided between the interior face of the Lepton endcap and the adjacent face of the central detector.
05/16/2025
Approved
FALSE

F-DET.13
6.10
The configuration of the sub-systems within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

F-DET.15
6.10
A structural support infrastructure must be provided that supports the weight of the detectors and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

DET-TRAK : Tracking Systems (WBS 6.10.03)

G-DET-TRAK.1
6.10.03
The tracking systems shall provide coordinate measurements of charged particles traversing a magnetic field, and provide a sufficient lever arm to provide measurements of the momenta and angles of the particles.
05/16/2025
Approved
FALSE

F-DET-TRAK.1
6.10.03
The tracking system must provide a low detection threshold for pions and kaons.
05/16/2025
Approved
FALSE

P-DET-TRAK-BAR.2
6.10.03
The barrel tracking system shall provide a low material budget: < 5% X0.
05/16/2025
Approved
FALSE

P-DET-TRAK.1
6.10.03
The tracking system must provide a minimum pT of 100 MeV π, 130 MeV K.
05/16/2025
Approved
FALSE

G-DET-TRAK.2
6.10.03
Tracking functionality shall cover the backward, the barrel and the forward region.
05/16/2025
Approved
FALSE

F-DET-TRAK.2
6.10.03
The tracking system must provide high hermicity in exclusive and diffractive channels.
05/16/2025
Approved
FALSE

P-DET-TRAK-BAR.1
6.10.03
The barrel tracking system shall provide a momentum resolution < 5%.
05/16/2025
Approved
FALSE

P-DET-TRAK-BAR.3
6.10.03
The barrel tracking system shall provide a momentum resolution of σp/p ~ 0.05%⨯p+0.5% in the rapidity region between -1 to 1.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.1
6.10.03
The backward tracking system shall provide coverage in rapidity region between -3.5 to -1.0.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.2
6.10.03
The backward tracking system shall provide a momentum resolution of σp/p ~ 0.05%⨯p+1.0% in the rapidity region between -2.5 to -1.0.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.3
6.10.03
The backward tracking system shall provide a momentum resolution of σp/p ~ 0.10%⨯p+2.0% in the rapidity region between -3.5 to -2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.4
6.10.03
The backward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 20 μm in the rapidity region between -2.5 to -1.0.
05/16/2025
Approved
FALSE

P-DET-TRAK-BCK.5
6.10.03
The backward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 40 μm in the rapidity region between -3.5 to -2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.1
6.10.03
The forward tracking system shall provide coverage in rapidity region between -1.0 to 3.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.2
6.10.03
The forward tracking system shall provide a momentum resolution of σp/p ~ 0.05%⨯p+1.0% in the rapidity region between 1.0 to 2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.4
6.10.03
The forward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 20 μm in the rapidity region between 1.0 to 2.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.3
6.10.03
The forward tracking system shall provide a momentum resolution of σp/p ~ 0.10%⨯p+2.0% in the rapidity region between 2.5 to 3.5.
05/16/2025
Approved
FALSE

P-DET-TRAK-FWD.5
6.10.03
The forward tracking system shall provide a spatial resolution of σxy ∼ 30/pT ⊕ 40 μm in the rapidity region between 2.5 to 3.5.
05/16/2025
Approved
FALSE

G-DET-TRAK.3
6.10.03
The tracking system shall provide a measurement of the vertex coordinates in the barrel region.
05/16/2025
Approved
FALSE

F-DET-TRAK.3
6.10.03
The tracking system must provide good impact parameter resolution for heavy flavor measurements.
05/16/2025
Approved
FALSE

P-DET-TRAK-BAR.4
6.10.03
The barrel tracking system shall provide a spatial resolution of σxy ∼ 20/pT ⊕ 5 μm in the rapidity region between -1 to 1.
05/16/2025
Approved
FALSE

G-DET-TRAK.4
6.10.03
The tracking system will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-TRAK.4
6.10.03
The tracking system will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-TRAK.2
6.10.03
The tracking system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-TRAK.3
6.10.03
The tracking system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-TRAK.4
6.10.03
The tracking system shall provide a gas mixing system for gaseous detectors.
05/16/2025
Approved
FALSE

P-DET-TRAK.6
6.10.03
The tracking system will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-TRAK.5
6.10.03
The tracking system will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-TRAK.7
6.10.03
The tracking system will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

F-DET-TRAK.6
6.10.03
The tracking system and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-TRAK.2
6.10.03
The tracking system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-TRAK.3
6.10.03
The tracking system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-TRAK.4
6.10.03
The tracking system shall provide a gas mixing system for gaseous detectors.
05/16/2025
Approved
FALSE

P-DET-TRAK.5
6.10.03
The tracking system will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-TRAK.7
6.10.03
The tracking system will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-TRAK.6
6.10.03
The tracking system will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-TRAK.9
6.10.03
The tracking system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-TRAK.5
6.10.03
The configuration of the tracking system within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-TRAK.9
6.10.03
The tracking system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-TRAK.7
6.10.03
A structural support infrastructure must be provided that supports the weight of the tracking system and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-TRAK.8
6.10.03
The tracking system will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

G-DET-TRAK.5
6.10.03
The tracking system must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-TRAK.6
6.10.03
The tracking system and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-TRAK.2
6.10.03
The tracking system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-TRAK.3
6.10.03
The tracking system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-TRAK.4
6.10.03
The tracking system shall provide a gas mixing system for gaseous detectors.
05/16/2025
Approved
FALSE

P-DET-TRAK.5
6.10.03
The tracking system will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-TRAK.7
6.10.03
The tracking system will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-TRAK.6
6.10.03
The tracking system will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-TRAK.9
6.10.03
The tracking system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-TRAK.5
6.10.03
The configuration of the tracking system within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-TRAK.9
6.10.03
The tracking system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-TRAK.7
6.10.03
A structural support infrastructure must be provided that supports the weight of the tracking system and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-TRAK.8
6.10.03
The tracking system will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

DET-TRAK-BAR : Barrel Tracking Systems

DET-TRAK-BCK : Backward Tracking Systems

DET-TRAK-FWD : Forward Tracking Systems

DET-PID : Particle Identification Systems (WBS 6.10.04)

G-DET-PID.1
6.10.04
The PID detector systems shall provide a means to separately identify pions, kaons and protons following the electron-ion collision.
05/16/2025
Approved
FALSE

G-DET-PID.2
6.10.04
The particle identification systems shall consist of backward, barrel, and forward sub-systems.
05/16/2025
Approved
FALSE

G-DET-PID.3
6.10.04
The PID detector system will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-PID.1
6.10.04
The PID detector system will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.2
6.10.04
The PID Detector in the barrel region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. HV up to 2000V negative is for 5x72 channels and LV for 4x72 channels.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.3
6.10.04
The PID Detector in the barrel region will require cooling and removal of heat generated by detector electronics and digitizers.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.4
6.10.04
The PID Detector in the barrel region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.8
6.10.04
The DIRC system requires protective dry nitrogen gas flow to the quartz bars and prism.
01/15/2026
Approved
FALSE

P-DET-PID-BAR-TOF.1
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.2
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.3
6.10.04
Will require DAQ fiber optics. Two lines for each of the 144 connections.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.4
6.10.04
Will require cooling to remove 4kW of heat
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.6
6.10.04
The PID detector in the backward region will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.2
6.10.04
The PID Detector in the forward region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. The expected LV are 70V/1mA 312 channels, 4V/5A 312 channels, 3V/5A 312 channels 4V/2A 312 channels.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.3
6.10.04
The PID Detector in the forward region will require cooling and removal of heat generated by detector electronics and digitizers. Expect coolant at “room” temperature to remove 2.75kW heat for each of the 6 sectors.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.4
6.10.04
The PID Detector in the forward region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.5
6.10.04
The PID Detector in the forward region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.6
6.10.04
The RICH detector will require a continuous recirculating flow of radiator gas. This will require a gas recovery system operating at high pressure outside the detector on the platform. (Design authority required)
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.7
6.10.04
The RICH detector will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.8
6.10.04
The RICH detector will require sub zero cooling for its photo-sensors at -30deg C. Cooling lines with insulation required.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.9
6.10.04
Input from tracking with an angular resolution of about 0.Xmrad is required to reach full performance of the dRICH.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.2
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.3
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.4
6.10.04
Will require DAQ fiber optics. Two lines for each of the 212 connections.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.5
6.10.04
Will require cooling to remove 13kW of heat
05/16/2025
Approved
FALSE

P-DET-PID.2
6.10.04
The PID detectors will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-PID.1
6.10.04
The PID detectors will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-PID.3
6.10.04
The PID detectors will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

F-DET-PID.3
6.10.04
The PID detector system and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.2
6.10.04
The PID Detector in the barrel region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. HV up to 2000V negative is for 5x72 channels and LV for 4x72 channels.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.3
6.10.04
The PID Detector in the barrel region will require cooling and removal of heat generated by detector electronics and digitizers.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.4
6.10.04
The PID Detector in the barrel region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.5
6.10.04
The PID Detector in the barrel region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.6
6.10.04
The PID detector requires a 0.5mrad tracking resolution as input to reach its peak performance.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.1
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.2
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.3
6.10.04
Will require DAQ fiber optics. Two lines for each of the 144 connections.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.4
6.10.04
Will require cooling to remove 4kW of heat
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.6
6.10.04
The PID detector in the backward region will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.2
6.10.04
The PID Detector in the forward region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. The expected LV are 70V/1mA 312 channels, 4V/5A 312 channels, 3V/5A 312 channels 4V/2A 312 channels.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.3
6.10.04
The PID Detector in the forward region will require cooling and removal of heat generated by detector electronics and digitizers. Expect coolant at “room” temperature to remove 2.75kW heat for each of the 6 sectors.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.4
6.10.04
The PID Detector in the forward region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.5
6.10.04
The PID Detector in the forward region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.6
6.10.04
The RICH detector will require a continuous recirculating flow of radiator gas. This will require a gas recovery system operating at high pressure outside the detector on the platform. (Design authority required)
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.7
6.10.04
The RICH detector will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.8
6.10.04
The RICH detector will require sub zero cooling for its photo-sensors at -30deg C. Cooling lines with insulation required.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.9
6.10.04
Input from tracking with an angular resolution of about 0.Xmrad is required to reach full performance of the dRICH.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.2
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.3
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.4
6.10.04
Will require DAQ fiber optics. Two lines for each of the 212 connections.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.5
6.10.04
Will require cooling to remove 13kW of heat
05/16/2025
Approved
FALSE

P-DET-PID.1
6.10.04
The PID detectors will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-PID.3
6.10.04
The PID detectors will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-PID.2
6.10.04
The PID detectors will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-PID.5
6.10.04
The PID detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-PID.2
6.10.04
The configuration of the PID detector system within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

F-DET-PID.4
6.10.04
A structural support infrastructure must be provided that supports the weight of the PID detector system and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.1
6.10.04
The PID Detector in the barrel region will require appropriate support structure to hold the detector in place as well as all sub-detector systems that reside within its bore.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.5
6.10.04
TOF will weigh approximately 70 KG, and will require structural support to maintain it's position and stability.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.1
6.10.04
The PID Detector in the forward region will require appropriate support structure to hold the detector in place.
05/16/2025
Approved
FALSE

P-DET-PID.4
6.10.04
The PID detectors will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.1
6.10.04
The PID Detector in the forward region will require appropriate support structure to hold the detector in place.
05/16/2025
Approved
FALSE

P-DET-PID.5
6.10.04
The PID detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

G-DET-PID.4
6.10.04
The PID detector system must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-PID.3
6.10.04
The PID detector system and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.2
6.10.04
The PID Detector in the barrel region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. HV up to 2000V negative is for 5x72 channels and LV for 4x72 channels.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.3
6.10.04
The PID Detector in the barrel region will require cooling and removal of heat generated by detector electronics and digitizers.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.4
6.10.04
The PID Detector in the barrel region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.5
6.10.04
The PID Detector in the barrel region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.6
6.10.04
The PID detector requires a 0.5mrad tracking resolution as input to reach its peak performance.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.1
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.2
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.3
6.10.04
Will require DAQ fiber optics. Two lines for each of the 144 connections.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.4
6.10.04
Will require cooling to remove 4kW of heat
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.6
6.10.04
The PID detector in the backward region will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.2
6.10.04
The PID Detector in the forward region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. The expected LV are 70V/1mA 312 channels, 4V/5A 312 channels, 3V/5A 312 channels 4V/2A 312 channels.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.3
6.10.04
The PID Detector in the forward region will require cooling and removal of heat generated by detector electronics and digitizers. Expect coolant at “room” temperature to remove 2.75kW heat for each of the 6 sectors.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.4
6.10.04
The PID Detector in the forward region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.5
6.10.04
The PID Detector in the forward region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.6
6.10.04
The RICH detector will require a continuous recirculating flow of radiator gas. This will require a gas recovery system operating at high pressure outside the detector on the platform. (Design authority required)
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.7
6.10.04
The RICH detector will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.8
6.10.04
The RICH detector will require sub zero cooling for its photo-sensors at -30deg C. Cooling lines with insulation required.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.9
6.10.04
Input from tracking with an angular resolution of about 0.Xmrad is required to reach full performance of the dRICH.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.2
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.3
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.4
6.10.04
Will require DAQ fiber optics. Two lines for each of the 212 connections.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.5
6.10.04
Will require cooling to remove 13kW of heat
05/16/2025
Approved
FALSE

P-DET-PID.1
6.10.04
The PID detectors will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-PID.3
6.10.04
The PID detectors will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-PID.2
6.10.04
The PID detectors will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-PID.5
6.10.04
The PID detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-PID.2
6.10.04
The configuration of the PID detector system within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

F-DET-PID.4
6.10.04
A structural support infrastructure must be provided that supports the weight of the PID detector system and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.1
6.10.04
The PID Detector in the barrel region will require appropriate support structure to hold the detector in place as well as all sub-detector systems that reside within its bore.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.5
6.10.04
TOF will weigh approximately 70 KG, and will require structural support to maintain it's position and stability.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.1
6.10.04
The PID Detector in the forward region will require appropriate support structure to hold the detector in place.
05/16/2025
Approved
FALSE

P-DET-PID.4
6.10.04
The PID detectors will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.1
6.10.04
The PID Detector in the forward region will require appropriate support structure to hold the detector in place.
05/16/2025
Approved
FALSE

P-DET-PID.5
6.10.04
The PID detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

DET-PID-BAR : Barrel Particle ID Systems (WBS 6.10.04)

DET-PID-BAR-DIRC : Barrel DIRC Systems (WBS 6.10.04)

G-DET-PID-BAR-DIRC.1
6.10.04
The barrel DIRC detector is responsible for high momenta particle identification.
05/16/2025
Approved
FALSE

F-DET-PID-BAR-DIRC.1
6.10.04
The PID detector in the barrel region shall differentiate between pions, kaons and protons.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.7
6.10.04
The DIRC system will provide 3 sigma pi/K separation above 1 GeV/c.
05/16/2025
Approved
FALSE

DET-PID-BAR-DIRC EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-PID-BAR-DIRC.1
6.10.04
The PID Detector in the barrel region will require appropriate support structure to hold the detector in place as well as all sub-detector systems that reside within its bore.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.2
6.10.04
The PID Detector in the barrel region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. HV up to 2000V negative is for 5x72 channels and LV for 4x72 channels.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.3
6.10.04
The PID Detector in the barrel region will require cooling and removal of heat generated by detector electronics and digitizers.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.4
6.10.04
The PID Detector in the barrel region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.5
6.10.04
The PID Detector in the barrel region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.6
6.10.04
The PID detector requires a 0.5mrad tracking resolution as input to reach its peak performance.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-DIRC.8
6.10.04
The DIRC system requires protective dry nitrogen gas flow to the quartz bars and prism.
01/15/2026
Approved
FALSE

DET-PID-BAR-TOF : Barrel Time of Flight Systems (WBS 6.10.04)

G-DET-PID-BAR-TOF.1
6.10.04
The barrel time of flight detector is responsible for low momenta particle identification.
05/16/2025
Approved
FALSE

F-DET-PID-BAR-TOF.1
6.10.04
The time of flight system will provide separation of pions from kaons to mach the high-performance DIRC detector in particle momentum range.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.6
6.10.04
The time of flight system will provide 3 sigma pi/K separation from 0.2 up to 1.2 GeV/c.
05/16/2025
Approved
FALSE

DET-PID-BAR-TOF EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-PID-BAR-TOF.1
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.2
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 144 connections .
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.3
6.10.04
Will require DAQ fiber optics. Two lines for each of the 144 connections.
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.4
6.10.04
Will require cooling to remove 4kW of heat
05/16/2025
Approved
FALSE

P-DET-PID-BAR-TOF.5
6.10.04
TOF will weigh approximately 70 KG, and will require structural support to maintain it's position and stability.
05/16/2025
Approved
FALSE

DET-PID-BCK : Backward Particle ID Systems (WBS 6.10.04)

DET-PID-BCK-RICH : Backward Ring Imaging Cerenkov Counter (WBS 6.10.04)

G-DET-PID-BCK-RICH.1
6.10.04
The PID detector in the backward region is responsible for particle identification of charged hadrons.
05/16/2025
Approved
FALSE

F-DET-PID-BCK-RICH.1
6.10.04
The PID detector in the backward region shall differentiate between pions, kaons and protons.
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.1
6.10.04
The PID Detector in the backward region will require appropriate support structure to hold the detector in place.
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.2
6.10.04
The PID Detector in the backward region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. HV up to 2000V negative for 68x5 channels and LV for 68x4 channels.
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.3
6.10.04
The PID Detector in the backward region will require cooling and removal of heat generated by detector electronics and digitizers.
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.5
6.10.04
The PID Detector in the backward region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.4
6.10.04
The PID Detector in the backward region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-BCK-RICH.7
6.10.04
The particle identification system will provide 3 sigma pi/K separation from 1 up to 7 GeV/c.
05/16/2025
Approved
FALSE

DET-PID-BCK-RICH EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-PID-BCK-RICH.6
6.10.04
The PID detector in the backward region will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

DET-PID-FWD : Forward Particle ID Systems (WBS 6.10.04)

DET-PID-FWD-RICH : Forward Ring Imaging Cerenkov Counter (WBS 6.10.04)

G-DET-PID-FWD-RICH.1
6.10.04
The forward RICH detector is responsible for high momenta particle identification.
05/16/2025
Approved
FALSE

F-DET-PID-FWD-RICH.1
6.10.04
The PID detector in the forward region shall differentiate between pions, kaons and protons.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.10
6.10.04
The dRICH system will provide 3 sigma pi/K separation between 3 and 50 GeV/c.
05/16/2025
Approved
FALSE

DET-PID-FWD-RICH EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-PID-FWD-RICH.1
6.10.04
The PID Detector in the forward region will require appropriate support structure to hold the detector in place.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.2
6.10.04
The PID Detector in the forward region will require appropriate support DC voltage and power for operating detector sensors and associated electronics. The expected LV are 70V/1mA 312 channels, 4V/5A 312 channels, 3V/5A 312 channels 4V/2A 312 channels.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.3
6.10.04
The PID Detector in the forward region will require cooling and removal of heat generated by detector electronics and digitizers. Expect coolant at “room” temperature to remove 2.75kW heat for each of the 6 sectors.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.4
6.10.04
The PID Detector in the forward region will require detector signal transmission electronics and lines defined by the DAQ system.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.5
6.10.04
The PID Detector in the forward region will require survey marks or hooks for survey tools to determine its physical location in the barrel as a whole and its sub-components.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.6
6.10.04
The RICH detector will require a continuous recirculating flow of radiator gas. This will require a gas recovery system operating at high pressure outside the detector on the platform. (Design authority required)
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.7
6.10.04
The RICH detector will require a continuous flow of dry nitrogen to protect the aerogel radiator.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.8
6.10.04
The RICH detector will require sub zero cooling for its photo-sensors at -30deg C. Cooling lines with insulation required.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-RICH.9
6.10.04
Input from tracking with an angular resolution of about 0.Xmrad is required to reach full performance of the dRICH.
05/16/2025
Approved
FALSE

DET-PID-FWD-TOF : Forward Time of Flight Systems (WBS 6.10.04)

G-DET-PID-FWD-TOF.1
6.10.04
The forward time of flight detector is responsible for low momenta particle identification.
05/16/2025
Approved
FALSE

F-DET-PID-FWD-TOF.1
6.10.04
The forward time of flight system will provide separation of pions from kaons to match the forward RICH detector in particle momentum range.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.6
6.10.04
The time of flight system will provide 3 sigma pi/K separation from 0.2 up to 2.3 GeV/c.
05/16/2025
Approved
FALSE

DET-PID-FWD-TOF EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-PID-FWD-TOF.1
6.10.04
The PID Detector in the forward region will require appropriate support structure to hold the detector in place.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.2
6.10.04
Will require DC voltage supply of approximately 11V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.3
6.10.04
Will require sensor voltage supply of approximately 200V. There will be 2 lines for each of the 212 connections .
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.4
6.10.04
Will require DAQ fiber optics. Two lines for each of the 212 connections.
05/16/2025
Approved
FALSE

P-DET-PID-FWD-TOF.5
6.10.04
Will require cooling to remove 13kW of heat
05/16/2025
Approved
FALSE

DET-ECAL : Electromagnetic Calorimetry Systems (WBS 6.10.05)

G-DET-ECAL.1
6.10.05
EMCal shall provide measurements of photons, including ones from pi0, eta and other decays; and shall play a key role to identify scattered and decay electrons and measure their kinematic parameters
05/16/2025
Approved
FALSE

F-DET-ECAL.2
6.10.05
Must operate at full luminosity and expected background conditions (rad. dose, neutron flux).
05/16/2025
Approved
FALSE

P-DET-ECAL.7
6.10.05
The noise level per channel shall be low enough to provide photon measurements down to the minimal photon energy.
05/16/2025
Approved
FALSE

F-DET-ECAL.3
6.10.05
Must provide adequate energy and position resolution for photon and electron measurements, and eID through E/p cut.
05/16/2025
Approved
FALSE

F-DET-ECAL.4
6.10.05
Shall provide discrimination between single photon and merged photon from pi0 decay.
05/16/2025
Approved
FALSE

F-DET-ECAL.6
6.10.05
Must provide timing sufficient to discriminate between different bunch crossings.
05/16/2025
Approved
FALSE

F-DET-ECAL.5
6.10.05
Shall provide photon measurements down to 100 MeV.
05/16/2025
Approved
FALSE

F-DET-ECAL.7
6.10.05
Material in front of EMCals will be minimized to the level not jeopardizing EMCal performance.
05/16/2025
Approved
FALSE

G-DET-ECAL.2
6.10.05
EMCal subsystem(s) shall cover the backward, the barrel and the forward region.
05/16/2025
Approved
FALSE

F-DET-ECAL.1
6.10.05
Design must minimize the loss of functionality in transition between barrel and endcap regions.
05/16/2025
Approved
FALSE

G-DET-ECAL.3
6.10.05
The EMCAL subsystems will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-ECAL.8
6.10.05
The EMCAL subsystems will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-ECAL.3
6.10.05
The EMCal systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ECAL.5
6.10.05
The EMCal systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-ECAL.4
6.10.05
The EMCal systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-ECAL.8
6.10.05
The monitoring system shall contain: Light system (LED or laser), test pulse (for electronics), dark current (for SiPM).
05/16/2025
Approved
FALSE

F-DET-ECAL.10
6.10.05
The EMCAL subsystems and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-ECAL.1
6.10.05
The EMCal detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ECAL.2
6.10.05
The EMCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-ECAL.3
6.10.05
The EMCal systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ECAL.5
6.10.05
The EMCal systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-ECAL.4
6.10.05
The EMCal systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-ECAL.8
6.10.05
The monitoring system shall contain: Light system (LED or laser), test pulse (for electronics), dark current (for SiPM).
05/16/2025
Approved
FALSE

F-DET-ECAL.9
6.10.05
The configuration of the EMCAL subsystems within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-ECAL.1
6.10.05
The EMCal detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.6
6.10.05
System shall have low material budget on the way from the vertex: <5%X0 in the 1st half a way, or <10%X0 on the second half a way, or <30%X0 just in front of EMCal (within 10cm).
05/16/2025
Approved
FALSE

P-DET-ECAL.6
6.10.05
Photosensors and readout electronics must tolerate the magnetic field in the subsystem location.
05/16/2025
Approved
FALSE

F-DET-ECAL.11
6.10.05
A structural support infrastructure must be provided that supports the weight of the EMCAL subsystems and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-ECAL.1
6.10.05
The EMCal detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ECAL.2
6.10.05
The EMCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

G-DET-ECAL.4
6.10.05
The EMCAL subsystems must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-ECAL.10
6.10.05
The EMCAL subsystems and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-ECAL.1
6.10.05
The EMCal detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ECAL.2
6.10.05
The EMCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-ECAL.3
6.10.05
The EMCal systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ECAL.5
6.10.05
The EMCal systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-ECAL.4
6.10.05
The EMCal systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-ECAL.8
6.10.05
The monitoring system shall contain: Light system (LED or laser), test pulse (for electronics), dark current (for SiPM).
05/16/2025
Approved
FALSE

F-DET-ECAL.9
6.10.05
The configuration of the EMCAL subsystems within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-ECAL.1
6.10.05
The EMCal detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.6
6.10.05
System shall have low material budget on the way from the vertex: <5%X0 in the 1st half a way, or <10%X0 on the second half a way, or <30%X0 just in front of EMCal (within 10cm).
05/16/2025
Approved
FALSE

P-DET-ECAL.6
6.10.05
Photosensors and readout electronics must tolerate the magnetic field in the subsystem location.
05/16/2025
Approved
FALSE

F-DET-ECAL.11
6.10.05
A structural support infrastructure must be provided that supports the weight of the EMCAL subsystems and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-ECAL.1
6.10.05
The EMCal detectors and support system must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ECAL.2
6.10.05
The EMCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

DET-ECAL-BAR : Barrel EMCal Systems (WBS 6.10.05)

G-DET-ECAL-BAR.1
6.10.05
Barrel EMCal shall identify scattered electrons and measure their energy, in high Q² events; it also serves to identify decay electrons, e.g. from vector or heavy flavor meson decays, and to measure DVCS photons and decay photons
05/16/2025
Approved
FALSE

F-DET-ECAL-BAR.1
6.10.05
Shall provide electron ID up to 50 GeV and down to 1 GeV and below.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.2
6.10.05
System shall provide high power for e/pi separation down to 1 GeV/c.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.1
6.10.05
Energy resolution shall be s(E)/E < 10%/sqrt(E) + (2-3)%.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.5
6.10.05
Shall have sufficient dynamic range to detect MIP signals in all layers.
05/16/2025
Approved
FALSE

F-DET-ECAL-BAR.3
6.10.05
Must provide discrimination between single photon and merged photon from pi0 decay up to 10 GeV.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.3
6.10.05
System shall be capable of distinguishing two showers with opening angle down to 30 mrad.
05/16/2025
Approved
FALSE

F-DET-ECAL-BAR.2
6.10.05
Shall provide photon measurements up to 10 GeV.
05/16/2025
Approved
FALSE

F-DET-ECAL-BAR.5
6.10.05
Four imaging planes shall be produced for a baseline, with mechanical design being capable to accommodate six imaging planes.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.2
6.10.05
System shall provide high power for e/pi separation down to 1 GeV/c.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.5
6.10.05
Shall have sufficient dynamic range to detect MIP signals in all layers.
05/16/2025
Approved
FALSE

G-DET-ECAL-BAR.2
6.10.05
EMCal shall provide a charged tracking point behind the DIRC to help charged hadron PID
05/16/2025
Approved
FALSE

F-DET-ECAL-BAR.4
6.10.05
The first imaging layer shall provide a charged tracking point behind the DIRC to help charged hadron PID
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.4
6.10.05
The first imaging layer shall provide a charged tracking point with space resolution of <150um.
05/16/2025
Approved
FALSE

G-DET-ECAL-BAR.3
6.10.05
EMCal shall assist with muon identification.
05/16/2025
Approved
FALSE

F-DET-ECAL-BAR.5
6.10.05
Four imaging planes shall be produced for a baseline, with mechanical design being capable to accommodate six imaging planes.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.2
6.10.05
System shall provide high power for e/pi separation down to 1 GeV/c.
05/16/2025
Approved
FALSE

P-DET-ECAL-BAR.5
6.10.05
Shall have sufficient dynamic range to detect MIP signals in all layers.
05/16/2025
Approved
FALSE

DET-ECAL-BCK : Backward EMCal Systems (WBS 6.10.05)

G-DET-ECAL-BCK.1
6.10.05
Backward EMCal shall identify scattered electrons and measure their energy, in low and medium Q² events; it also serves to identify decay electrons, e.g. from vector or heavy flavor meson decays, and measure DVCS photons and decay photons
05/16/2025
Approved
FALSE

F-DET-ECAL-BCK.1
6.10.05
Shall provide high precision measurements for electrons up to 18 GeV and pseudo rapidity down to -3.5.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.1
6.10.05
System shall cover pseudo rapidity down to -3.5.
05/16/2025
Approved
FALSE

F-DET-ECAL-BCK.2
6.10.05
Shall provide measurements of scattered electrons for the events down to Q²=1 GeV² (=> acceptance requirements).
05/16/2025
Approved
FALSE

F-DET-ECAL-BCK.3
6.10.05
Must provide strong eID capabilities down to 1 GeV/c.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.2
6.10.05
Energy resolution shall be s(E)/E ~ (2-3)%/sqrt(E) + (1-2)%
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.3
6.10.05
System shall have high power for e/pi separation down to 1 GeV/c.
05/16/2025
Approved
FALSE

F-DET-ECAL-BCK.5
6.10.05
Must provide discrimination between single photon and merged photon from pi0 decay up to 18 GeV.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.4
6.10.05
System shall have high granularity and be capable of distinguishing two showers with opening angle down to 0.015 (=>tower size).
05/16/2025
Approved
FALSE

F-DET-ECAL-BCK.4
6.10.05
Shall provide photon measurements up to 18 GeV.
05/16/2025
Approved
FALSE

F-DET-ECAL-BCK.7
6.10.05
A cooling system shall be provided for the lead-tungstate based detector.
05/16/2025
Approved
FALSE

P-DET-ECAL-BCK.7
6.10.05
A cooling system shall be provided.
05/16/2025
Approved
FALSE

DET-ECAL-BCK EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-ECAL-BCK.6
6.10.05
System shall have low material budget on the way from the vertex: <5%X0 in the 1st half a way, or <10%X0 on the second half a way, or <30%X0 just in front of EMCal (within 10cm).
05/16/2025
Approved
FALSE

DET-ECAL-FWD : Forward EMCal Systems (WBS 6.10.05)

DET-HCAL : Hadronic Calorimetry Systems (WBS 6.10.06)

G-DET-HCAL.1
6.10.06
Hadronic calorimeter (HCal) subsystem must provide hadron energy measurement, in particular for the jet neutral component identification (neutrons and K-long's), as well as to serve as a tail catcher for the e/m calorimeters
05/16/2025
Approved
FALSE

F-DET-HCAL.2
6.10.06
Must provide a reasonable energy measurement for charged hadrons.
05/16/2025
Approved
FALSE

F-DET-HCAL.1
6.10.06
Must operate reliably at a full projected EIC luminosity.
05/16/2025
Approved
FALSE

F-DET-HCAL.3
6.10.06
Must provide means for neutral hadron identification and energy measurement.
05/16/2025
Approved
FALSE

P-DET-HCAL.8
6.10.06
Shall provide practical detection threshold ~500 MeV as defined in the EIC Yellow Report.
05/16/2025
Approved
FALSE

G-DET-HCAL.2
6.10.06
Functionality shall cover the barrel and the forward region, and should cover the backward region.
05/16/2025
Approved
FALSE

G-DET-HCAL.3
6.10.06
The Hadronic Calorimetry subsystem will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-HCAL.4
6.10.06
The Hadronic Calorimetry subsystem will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-HCAL.4
6.10.06
The HCal systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-HCAL.3
6.10.06
The HCal systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-HCAL.5
6.10.06
The HCal systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

F-DET-HCAL.6
6.10.06
The Hadronic Calorimetry subsystem and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-HCAL.1
6.10.06
Must be compact enough to fit in the limited space allocated for the EIC detector, but at the same time provide a hermetic coverage and have sufficient depth in order to efficiently contain the hadronic showers.
05/16/2025
Approved
FALSE

P-DET-HCAL.2
6.10.06
The HCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-HCAL.3
6.10.06
The HCal systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-HCAL.5
6.10.06
The HCal systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-HCAL.4
6.10.06
The HCal systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-HCAL.7
6.10.06
HCal layout shall minimize the gaps in coverage between barrel and endcaps.
05/16/2025
Approved
FALSE

F-DET-HCAL.5
6.10.06
The configuration of the Hadronic Calorimetry subsystem within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.3
6.10.06
Should be built of non-magnetic materials
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.5
6.10.06
Shall not interfere with the detector solenoid magnetic field
05/16/2025
Approved
FALSE

P-DET-HCAL.6
6.10.06
Must be resilient against harsh background conditions, high neutron flux in the IR area in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-HCAL.1
6.10.06
Must be compact enough to fit in the limited space allocated for the EIC detector, but at the same time provide a hermetic coverage and have sufficient depth in order to efficiently contain the hadronic showers.
05/16/2025
Approved
FALSE

P-DET-HCAL.7
6.10.06
HCal layout shall minimize the gaps in coverage between barrel and endcaps.
05/16/2025
Approved
FALSE

F-DET-HCAL.7
6.10.06
A structural support infrastructure must be provided that supports the weight of the Hadronic Calorimetry subsystem and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-HCAL.2
6.10.06
The HCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

G-DET-HCAL.4
6.10.06
The Hadronic Calorimetry subsystem must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-HCAL.6
6.10.06
The Hadronic Calorimetry subsystem and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-HCAL.1
6.10.06
Must be compact enough to fit in the limited space allocated for the EIC detector, but at the same time provide a hermetic coverage and have sufficient depth in order to efficiently contain the hadronic showers.
05/16/2025
Approved
FALSE

P-DET-HCAL.2
6.10.06
The HCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-HCAL.3
6.10.06
The HCal systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-HCAL.5
6.10.06
The HCal systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-HCAL.4
6.10.06
The HCal systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-HCAL.7
6.10.06
HCal layout shall minimize the gaps in coverage between barrel and endcaps.
05/16/2025
Approved
FALSE

F-DET-HCAL.5
6.10.06
The configuration of the Hadronic Calorimetry subsystem within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.3
6.10.06
Should be built of non-magnetic materials
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.5
6.10.06
Shall not interfere with the detector solenoid magnetic field
05/16/2025
Approved
FALSE

P-DET-HCAL.6
6.10.06
Must be resilient against harsh background conditions, high neutron flux in the IR area in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-HCAL.1
6.10.06
Must be compact enough to fit in the limited space allocated for the EIC detector, but at the same time provide a hermetic coverage and have sufficient depth in order to efficiently contain the hadronic showers.
05/16/2025
Approved
FALSE

P-DET-HCAL.7
6.10.06
HCal layout shall minimize the gaps in coverage between barrel and endcaps.
05/16/2025
Approved
FALSE

F-DET-HCAL.7
6.10.06
A structural support infrastructure must be provided that supports the weight of the Hadronic Calorimetry subsystem and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-HCAL.2
6.10.06
The HCal systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

DET-HCAL-BAR : Barrel HCal Systems (WBS 6.10.06)

DET-HCAL-BCK : Backward HCal Systems (WBS 6.10.06)

G-DET-HCAL-BCK.1
6.10.06
Backward HCal shall provide functionality of a tail catcher for the high resolution e/m calorimeter in electron identification, as well as for jet kinematics measurement at small Bjorken x
05/16/2025
Approved
FALSE

F-DET-HCAL-BCK.1
6.10.06
Shall accommodate the possibility of hadron energy measurements in the range up to few dozens of GeV and pseudorapidity down to -3.5 .
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.1
6.10.06
Must provide capability to cover pseudo rapidity range down to at least -3.5.
05/16/2025
Approved
FALSE

F-DET-HCAL-BCK.2
6.10.06
Shall accommodate the ability to complement e/m calorimeter by tail catching capability for electron ID purposes, especially below 3-4 GeV/c.
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.2
6.10.06
Shall provide capability to have energy resolution s(E)/E ~ 100%/sqrt(E) + a 10% constant term.
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.4
6.10.06
Must provide space to have tower depth of 3-4 interaction lengths (together with the e/m PWO crystal calorimeter) in order to suppress longitudinal leakage for relatively small hadron energies in the e-endcap.
05/16/2025
Approved
FALSE

DET-HCAL-BCK EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-HCAL-BCK.3
6.10.06
Should be built of non-magnetic materials
05/16/2025
Approved
FALSE

P-DET-HCAL-BCK.5
6.10.06
Shall not interfere with the detector solenoid magnetic field
05/16/2025
Approved
FALSE

DET-HCAL-FWD : Forward HCal Systems (WBS 6.10.06)

G-DET-HCAL-FWD.1
6.10.06
Forward HCal shall play a crucial role in jet energy and kinematics reconstruction in the hadron endcap, complementing tracking and e/m calorimetry in the particle flow algorithms, and be consistent with the ePIC detector solenoid design
05/16/2025
Approved
FALSE

F-DET-HCAL-FWD.1
6.10.06
Must provide hadron energy measurements up to the highest hadron energies in a 250(p) x 18(e) GeV beam configuration and pseudorapidity up to 3.5, with energy resolution defined by the community Yellow Report and subsequent ePIC simulation studies
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.1
6.10.06
Must cover pseudo rapidity range up to at least 3.5.
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.2
6.10.06
Shall have energy resolution s(E)/E ~ 50%/sqrt(E) + a 10 % constant term.
05/16/2025
Approved
FALSE

F-DET-HCAL-FWD.2
6.10.06
The design must be coupled well with a compensated forward e/m calorimeter for high precision jet energy measurements.
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.4
6.10.06
Must have tower depth of 6-7 interaction lengths (together with the e/m section) in order to avoid longitudinal leakage for highest energy hadrons at the EIC.
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.3
6.10.06
Granularity (transverse tower size) should be adequate to resolve deposits from different charged and neutral hadrons taking into account the local abundance, resulting in transverse tower sizes of at least ~5x5 cm^2 for \eta < 2.5 and 3x3 cm^2 for 2.5 < \eta < 4
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.5
6.10.06
Granularity (longitudinal tower size) should be adequate to allow for association of showers starting at different depth to the corresponding charged and neutral hadrons. At least 5 longitudinal segments should be read out to determine the shower maximum reliably. For higher rapidity the segmentation should be increased due to the higher particle density
05/16/2025
Approved
FALSE

F-DET-HCAL-FWD.3
6.10.06
The calorimeter structure must serve as part of the solenoid flux return
05/16/2025
Approved
FALSE

P-DET-HCAL-FWD.6
6.10.06
Calorimeter absorber blocks in the volume allocated for the flux return must be partly built out of a magnetic steel with the permeability defined by the solenoid designers
05/16/2025
Approved
FALSE

DET-MAG : Solenoid Magnet (WBS 6.10.07)

G-DET-MAG.1
6.10.07
The EIC detector magnet shall provide a central field, a sufficiently large room temperature bore, and a magnet length consistent with the detector need to fulfill EIC science requirements
05/16/2025
Approved
FALSE

F-DET-MAG-PSU.1
6.10.07.03
Magnet power shall be able to supply required current to the magnet to produce a 1.7 T central field, with a stretch goal of 2 T.
05/16/2025
Approved
FALSE

P-DET-MAG-PSU.1
6.10.07.03
Magnet power supply shall be able to dump the magnet stored energy in a dump resistor.
05/16/2025
Approved
FALSE

F-DET-MAG-CCR.1
6.10.07.01
The magnet shall require a cryocan and cryogenic line that will deliver Liquid Helium to the solenoid.
05/16/2025
Approved
FALSE

P-DET-MAG-CCR.1
6.10.07.01
Supercritcal helium at 4.6 K and Gaseous helium at 300K & shall be provided 50K with flow rates upto 10 g/s
10/23/2025
Approved
FALSE

P-DET-MAG-CCR.3
6.10.07.01
Cryogenic supply and return shall be provided within the experimental hall and assembly hall at IP6
10/23/2025
Approved
FALSE

P-DET-MAG-CCR.2
6.10.07.01
The maximum average temperature shall be 4.7 K, 80 K & 100K during operation, shutdown and transport respectively
10/23/2025
Approved
FALSE

P-DET-MAG-CCR.4
6.10.07.01
A low pressure relief valve shall be placed in the magnet side transferline to relieve pressure during transport
10/23/2025
Approved
FALSE

F-DET-MAG-I&C.1
6.10.07.02
The magnet control and instrumentation shall be able to read all the temperature and stress sensor in the magnet.
05/16/2025
Approved
FALSE

P-DET-MAG-I&C.1
6.10.07.02
The magnet I&C should be able diagnose a quench and initiate the energy dumping procedure.
05/16/2025
Approved
FALSE

P-DET-MAG-I&C.2
6.10.07.02
The magnet I&C should be able to provide all the interlocks required for the magnet safe operation.
05/16/2025
Approved
FALSE

F-DET-MAG.1
6.10.07
The EIC detector magnet shall fulfill the field specification (as specified in the magnetic field specification document), the main area for field specifications are (i) flat field area, (ii) RICH detector area, (iii) stray field at IR magnets, and (iv) stray field at the RCS location.
05/16/2025
Approved
FALSE

P-DET-MAG.9
6.10.07
The EIC detector magnet shall be able to operate at 4.5K (liquid Helium).
05/16/2025
Approved
FALSE

P-DET-MAG.10
6.10.07
The detector solenoid shall be able to operate at a lower field (0.5 T), without sacrificing the field quality.
05/16/2025
Approved
FALSE

P-DET-MAG.11
6.10.07
The detector solenoid shall be aligned along the electron axis.
05/16/2025
Approved
FALSE

P-DET-MAG.14
6.10.07
The detector solenoid's magnetic field extends beyond its physical boundaries, and must be accounted for and managed.
05/16/2025
Approved
FALSE

P-DET-MAG.13
6.10.07
The detector solenoid must produce a consistent, stable magnetic field that is sufficient to satisfy the requirements of all subordinate detectors.
05/16/2025
Approved
FALSE

P-DET-MAG.15
6.10.07
The flux return shall reduce the magnetic field to no more than 10 Gauss at the location of the most nearby active beam transport elements (IR magnets and RCS beamline).
05/16/2025
Approved
FALSE

G-DET-MAG.2
6.10.07
The EIC detector magnet will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-MAG.2
6.10.07
The EIC detector magnet will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-MAG.3
6.10.07
The detector solenoid systems will require conventional cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-MAG.4
6.10.07
The detector solenoid will require cryogenic cooling infrastructure that is sufficient to maintain the solenoid cryostat temperature within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-MAG.5
6.10.07
The detector solenoid will require an ice management system.
05/16/2025
Approved
FALSE

P-DET-MAG.7
6.10.07
The detector solenoid systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-MAG.6
6.10.07
The detector solenoid systems will require electrical power to support the operation of the magnet and its peripheral sub-systems.
05/16/2025
Approved
FALSE

P-DET-MAG.16
6.10.07
To remain below 100K, cryogens cannot be discontinued to the solenoid magnet for more than 48 hours.
12/01/2025
Approved
FALSE

F-DET-MAG.4
6.10.07
The EIC detector magnet and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-MAG.1
6.10.07
The detector solenoid and supporting infrastructure must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-MAG.2
6.10.07
The detector solenoid systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

P-DET-MAG.3
6.10.07
The detector solenoid systems will require conventional cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-MAG.4
6.10.07
The detector solenoid will require cryogenic cooling infrastructure that is sufficient to maintain the solenoid cryostat temperature within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-MAG.5
6.10.07
The detector solenoid will require an ice management system.
05/16/2025
Approved
FALSE

P-DET-MAG.7
6.10.07
The detector solenoid systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-MAG.6
6.10.07
The detector solenoid systems will require electrical power to support the operation of the magnet and its peripheral sub-systems.
05/16/2025
Approved
FALSE

P-DET-MAG.12
6.10.07
The magnet shall provide a minimum 2.8 meter bore diameter to support insertion of the detector elements.
05/16/2025
Approved
FALSE

F-DET-MAG.3
6.10.07
The configuration of the EIC detector magnet within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-MAG.1
6.10.07
The detector solenoid and supporting infrastructure must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-MAG.5
6.10.07
A structural support infrastructure must be provided that supports the weight of the EIC detector magnet and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-MAG.2
6.10.07
The detector solenoid systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

G-DET-MAG.3
6.10.07
The EIC detector magnet must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-MAG.4
6.10.07
The EIC detector magnet and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-MAG.1
6.10.07
The detector solenoid and supporting infrastructure must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-MAG.2
6.10.07
The detector solenoid systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

P-DET-MAG.3
6.10.07
The detector solenoid systems will require conventional cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-MAG.4
6.10.07
The detector solenoid will require cryogenic cooling infrastructure that is sufficient to maintain the solenoid cryostat temperature within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-MAG.5
6.10.07
The detector solenoid will require an ice management system.
05/16/2025
Approved
FALSE

P-DET-MAG.7
6.10.07
The detector solenoid systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-MAG.6
6.10.07
The detector solenoid systems will require electrical power to support the operation of the magnet and its peripheral sub-systems.
05/16/2025
Approved
FALSE

P-DET-MAG.12
6.10.07
The magnet shall provide a minimum 2.8 meter bore diameter to support insertion of the detector elements.
05/16/2025
Approved
FALSE

F-DET-MAG.3
6.10.07
The configuration of the EIC detector magnet within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-MAG.1
6.10.07
The detector solenoid and supporting infrastructure must fit within the constraints of the surrounding detector sub-systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-MAG.5
6.10.07
A structural support infrastructure must be provided that supports the weight of the EIC detector magnet and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-MAG.2
6.10.07
The detector solenoid systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor.
05/16/2025
Approved
FALSE

DET-MAG EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-MAG.8
6.10.07
The EIC detector magnet must be consistent with the cryogenic capability of the supply.
05/16/2025
Approved
FALSE

DET-MAG-CCR : Magnet Cryogenics

DET-MAG-I&C : Magnet Instrumentation and Control

DET-MAG-PSU : Magnet Power Supply

DET-ELEC : Electronic Systems (WBS 6.10.08)

G-DET-ELEC.1
6.10.08
The EIC detector readout electronics shall provide the means to acquire, process and deliver detector signals to the DAQ system. Streaming readout shall be the default or nominal operation mode; to facilitate calibration and testing or debugging, a triggered operation mode shall be implemented at every level.
05/16/2025
Approved
FALSE

F-DET-ELEC.1
6.10.08
The EIC detector readout electronics will provide signal conditioning to detector signals by the shaping constants, amplification, digitization and signal drive via discrete components and Application Specific Integrated Circuits (ASIC).
05/16/2025
Approved
FALSE

P-DET-ELEC.7
6.10.08
In the current conceptual design, two ASICs shall be used for the readout of MPGD and photonic sensors. These will be 64-channel, 1 W nominal power consumption. MPGDs: amplification (1 to 10), shaping (40 to 250 ns), digitization (12-bit precision), better than 20 ns timing resolution. Photonic sensors: amplification (2 to 30 mV/fC), shaping (1 to 40 ns), digitization (10 to 14-bit precision), timing resolution (100 ps to <1 ns).
05/16/2025
Approved
FALSE

F-DET-ELEC.3
6.10.08
The EIC detector readout electronics will process, collect and aggregate data within the Readout Board (RDO). The RDO is typically characterized by the use of FPGAs. Data transport off the RDO is made via optical fibers to the DAQ, which may consist of FELIX-type cards, network servers or network switches.
05/16/2025
Approved
FALSE

P-DET-ELEC.9
6.10.08
RDO shall include FPGAs and interface via optical fibers to the DAQ. Data aggregation (10:1), reduction techniques and processing via ML/AI algorithms shall reduce data volume by a factor of 10 or more during normal operation.
05/16/2025
Approved
FALSE

F-DET-ELEC.2
6.10.08
The EIC detector readout electronics will process detector signals on the Front End Board (FEB). The FEB is typically characterized by the use of ASICs and customized for each type of sub-detector. Data transport off the FEB is made via copper links to the RDOs (Readout Boards) or DAQ system.
05/16/2025
Approved
FALSE

P-DET-ELEC.8
6.10.08
FEB shall include ASICs, support components and interfaces, where applicable. FEBs may implement data reduction techniques, such as zero suppression, to reduce data volume.
05/16/2025
Approved
FALSE

F-DET-ELEC.4
6.10.08
The FEB and RDO boards will be remotely configured for proper operation of their programmable logic device, such as FPGAs. Processor boards or single board computers used with critical detector systems may require remote booting of OS.
05/16/2025
Approved
FALSE

G-DET-ELEC.2
6.10.08
All components and equipment will comply with standards established by the EIC project.
05/16/2025
Approved
FALSE

F-DET-ELEC.5
6.10.08
All components, whether procured or manufactured, will, at a minimum, meet the standards specified by the EIC project AND meet the additional standards and specifications identified in these requirements.
05/16/2025
Approved
FALSE

P-DET-ELEC.10
6.10.08
Electronics and electronic components shall meet commercial operating environment specifications; critical systems shall consider conformance to industrial specifications, and use industrial/automotive grade components when available and economically feasible.
05/16/2025
Approved
FALSE

P-DET-ELEC.11
6.10.08
The detector ground (i.e., Clean Ground) shall be segregated from other equipment grounding. The grounding around the solenoid and the south platform from the detector ground reference, which shall be isolated from other systems and structures and connected to the experimental area ground via six (6) low impedance, insulated 4/0 wires. Other equipment, such as the solenoid power supplies and control systems, shall connect to the experimental area grounding connection separately from the clean ground. All connections shall be effected via low impedance insulated wires (e.g., 4/0). These wires shall have differently colored insulation for easy identification of segregated grounds.
05/16/2025
Approved
FALSE

P-DET-ELEC.12
6.10.08
Power supplies (HV, LV, Bias) shall be of the floating type and referenced to the detector clean ground.
05/16/2025
Approved
FALSE

P-DET-ELEC.13
6.10.08
Cabling shall be rated to National Electrical Code (NEC) 2020, NFPA 70, UL CL2 or better. Cable jackets shall be marked to UL standards by the manufacturer. Cables rated with the X suffix (Dwellings) (e.g., CL2X, CMX) are not permitted.
05/16/2025
Approved
FALSE

P-DET-ELEC.14
6.10.08
Cable routing shall conform to NECA/NEMA 105/2007 for open cable tray systems.
05/16/2025
Approved
FALSE

P-DET-ELEC.15
6.10.08
All electrical equipment in the experimental area shall conform to EMI/RFI standards FCC Class B, CISPR11/EN 55011 Class B, CISPR22/EN 55022 Class B, EN 61000-6-3 or equivalent. Exceptions shall be evaluated via EMI/RFI measurement surveys.
05/16/2025
Approved
FALSE

P-DET-ELEC.16
6.10.08
Cabinet racks (19 inch type), open or closed frame types (e.g., Hammond C4F247736), shall be COTS and equipped with horizontal and vertical cable managers. These shall accommodate a minimum of three equipment crates or chassis.
05/16/2025
Approved
FALSE

P-DET-ELEC.17
6.10.08
Equipment crates or chassis for HV, LV and Bias supplies and for data acquisition shall be rated for a maximum of 2.5 kW each and powered from 120 VAC or 208 VAC 3-phase, preferably.
05/16/2025
Approved
FALSE

P-DET-ELEC.18
6.10.08
Any equipment that is powered by a plug and cord shall be either listed by a Nationally Recognized Testing Lab (NRTL) such as UL or have been approved by the Laboratory EEI (Electrical Equipment Inspection) program.
05/16/2025
Approved
FALSE

P-DET-ELEC.20
6.10.08
Electrical components shall be derated to 80%, if the manufacturer has not already done so, and if such derating is economically feasible.
05/16/2025
Approved
FALSE

P-DET-ELEC.19
6.10.08
Cables shall have sufficient excess length (slack or service loop) to allow connection without strain. Cables outside of the enclosure shall be dressed in a way that allows removal of any module without obstruction, those inside the enclosure shall have sufficient slack to allow visual inspection, connection, and disconnection with all other modules installed.
05/16/2025
Approved
FALSE

P-DET-ELEC.21
6.10.08
Enclosures and removable modules should use captive hardware when possible.
05/16/2025
Approved
FALSE

F-DET-ELEC.6
6.10.08
Where not governed by specific standards, components will be implemented, installed, and utilized in a manner that is consistent with industry best practices.
05/16/2025
Approved
FALSE

P-DET-ELEC.10
6.10.08
Electronics and electronic components shall meet commercial operating environment specifications; critical systems shall consider conformance to industrial specifications, and use industrial/automotive grade components when available and economically feasible.
05/16/2025
Approved
FALSE

P-DET-ELEC.11
6.10.08
The detector ground (i.e., Clean Ground) shall be segregated from other equipment grounding. The grounding around the solenoid and the south platform from the detector ground reference, which shall be isolated from other systems and structures and connected to the experimental area ground via six (6) low impedance, insulated 4/0 wires. Other equipment, such as the solenoid power supplies and control systems, shall connect to the experimental area grounding connection separately from the clean ground. All connections shall be effected via low impedance insulated wires (e.g., 4/0). These wires shall have differently colored insulation for easy identification of segregated grounds.
05/16/2025
Approved
FALSE

P-DET-ELEC.12
6.10.08
Power supplies (HV, LV, Bias) shall be of the floating type and referenced to the detector clean ground.
05/16/2025
Approved
FALSE

P-DET-ELEC.13
6.10.08
Cabling shall be rated to National Electrical Code (NEC) 2020, NFPA 70, UL CL2 or better. Cable jackets shall be marked to UL standards by the manufacturer. Cables rated with the X suffix (Dwellings) (e.g., CL2X, CMX) are not permitted.
05/16/2025
Approved
FALSE

P-DET-ELEC.14
6.10.08
Cable routing shall conform to NECA/NEMA 105/2007 for open cable tray systems.
05/16/2025
Approved
FALSE

P-DET-ELEC.15
6.10.08
All electrical equipment in the experimental area shall conform to EMI/RFI standards FCC Class B, CISPR11/EN 55011 Class B, CISPR22/EN 55022 Class B, EN 61000-6-3 or equivalent. Exceptions shall be evaluated via EMI/RFI measurement surveys.
05/16/2025
Approved
FALSE

P-DET-ELEC.16
6.10.08
Cabinet racks (19 inch type), open or closed frame types (e.g., Hammond C4F247736), shall be COTS and equipped with horizontal and vertical cable managers. These shall accommodate a minimum of three equipment crates or chassis.
05/16/2025
Approved
FALSE

P-DET-ELEC.17
6.10.08
Equipment crates or chassis for HV, LV and Bias supplies and for data acquisition shall be rated for a maximum of 2.5 kW each and powered from 120 VAC or 208 VAC 3-phase, preferably.
05/16/2025
Approved
FALSE

P-DET-ELEC.18
6.10.08
Any equipment that is powered by a plug and cord shall be either listed by a Nationally Recognized Testing Lab (NRTL) such as UL or have been approved by the Laboratory EEI (Electrical Equipment Inspection) program.
05/16/2025
Approved
FALSE

P-DET-ELEC.20
6.10.08
Electrical components shall be derated to 80%, if the manufacturer has not already done so, and if such derating is economically feasible.
05/16/2025
Approved
FALSE

P-DET-ELEC.19
6.10.08
Cables shall have sufficient excess length (slack or service loop) to allow connection without strain. Cables outside of the enclosure shall be dressed in a way that allows removal of any module without obstruction, those inside the enclosure shall have sufficient slack to allow visual inspection, connection, and disconnection with all other modules installed.
05/16/2025
Approved
FALSE

P-DET-ELEC.21
6.10.08
Enclosures and removable modules should use captive hardware when possible.
05/16/2025
Approved
FALSE

G-DET-ELEC.3
6.10.08
The EIC detector readout electronics will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-ELEC.7
6.10.08
The EIC detector readout electronics will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-ELEC.3
6.10.08
The electronics systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ELEC.5
6.10.08
The electronics systems will require communications infrastructure that will be used to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-ELEC.4
6.10.08
The electronics systems will require a source of electrical power that will energize local devices and be distributed to other detectors and systems.
05/16/2025
Approved
FALSE

P-DET-ELEC.6
6.10.08
The electronics systems must be shielded against the effects of electromagnetic interference, radiation, and other external influences that may impact their performance.
05/16/2025
Approved
FALSE

F-DET-ELEC.9
6.10.08
The EIC detector readout electronics and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-ELEC.1
6.10.08
The electronics systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ELEC.2
6.10.08
The electronics systems will require a structural support system to deliver cabling and services throughout the experimental hall and control room.
05/16/2025
Approved
FALSE

P-DET-ELEC.3
6.10.08
The electronics systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ELEC.5
6.10.08
The electronics systems will require communications infrastructure that will be used to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-ELEC.4
6.10.08
The electronics systems will require a source of electrical power that will energize local devices and be distributed to other detectors and systems.
05/16/2025
Approved
FALSE

P-DET-ELEC.6
6.10.08
The electronics systems must be shielded against the effects of electromagnetic interference, radiation, and other external influences that may impact their performance.
05/16/2025
Approved
FALSE

F-DET-ELEC.8
6.10.08
The configuration of the EIC detector readout electronics within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-ELEC.1
6.10.08
The electronics systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-ELEC.10
6.10.08
A structural support infrastructure must be provided that supports the weight of the EIC detector readout electronics and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-ELEC.2
6.10.08
The electronics systems will require a structural support system to deliver cabling and services throughout the experimental hall and control room.
05/16/2025
Approved
FALSE

G-DET-ELEC.4
6.10.08
The EIC detector readout electronics must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-ELEC.9
6.10.08
The EIC detector readout electronics and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-ELEC.1
6.10.08
The electronics systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ELEC.2
6.10.08
The electronics systems will require a structural support system to deliver cabling and services throughout the experimental hall and control room.
05/16/2025
Approved
FALSE

P-DET-ELEC.3
6.10.08
The electronics systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ELEC.5
6.10.08
The electronics systems will require communications infrastructure that will be used to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-ELEC.4
6.10.08
The electronics systems will require a source of electrical power that will energize local devices and be distributed to other detectors and systems.
05/16/2025
Approved
FALSE

P-DET-ELEC.6
6.10.08
The electronics systems must be shielded against the effects of electromagnetic interference, radiation, and other external influences that may impact their performance.
05/16/2025
Approved
FALSE

F-DET-ELEC.8
6.10.08
The configuration of the EIC detector readout electronics within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-ELEC.1
6.10.08
The electronics systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-ELEC.10
6.10.08
A structural support infrastructure must be provided that supports the weight of the EIC detector readout electronics and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-ELEC.2
6.10.08
The electronics systems will require a structural support system to deliver cabling and services throughout the experimental hall and control room.
05/16/2025
Approved
FALSE

DET-COMP : Data Acquisition and Computing Systems (WBS 6.10.09)

G-DET-COMP.1
6.10.09
The DAQ subsystem shall consist of all resources necessary to communicate with all DET subsystems in order to configure, control and monitor these systems as well as read, process and store data they generate.
05/16/2025
Approved
FALSE

F-DET-COMP.3
6.10.09
The DAQ subsystem shall be designed to operate continuously, independent of the state of the other detector subsystems.
05/16/2025
Approved
FALSE

F-DET-COMP.7
6.10.09
The Data Acquisition system will support triggerless (streaming) readout of all DET subsystems as part of normal operation. Asynchronous (triggered) readout from front-end systems will also be supported as an option.
05/16/2025
Approved
FALSE

F-DET-COMP.8
6.10.09
The DAQ system will support independent and simultaneous operation (configuration, control and readout) from multiple DET sub-systems.
05/16/2025
Approved
FALSE

F-DET-COMP.10
6.10.09
There will be sufficient online processing and networking resources to manage the full DET subsystem output for purposes of zero suppression, primary noise and background filtering as well as event identification for purposes of filtering non-physics related signals.
05/16/2025
Approved
FALSE

P-DET-COMP.13
6.10.09
Fiber connected to patch panels from the Rack Room to Experimental Hall Patch panel shall be implemented with enough single and/or multi-mode fiber capable of supporting both commercial and proprietary bidirectional serial links for all detector system requirements. Minimum aggregate bandwidth capabilities shall not be less than 10Tb/s.
05/16/2025
Approved
FALSE

P-DET-COMP.15
6.10.09
Online data storage capabilities within the counting house COMP resources shall be fast enough to keep up with processed data rates and large enough to hold all acquired data locally for up to 72 hours.
05/16/2025
Approved
FALSE

P-DET-COMP.14
6.10.09
Online data processing capabilities within the experimental hall and counting house shall be sufficient to support event identification, background & noise suppression and data quality monitoring necessary to be able to keep up with front-end data rates and temporarily store filtered data - ready for further offline processing.
05/16/2025
Approved
FALSE

P-DET-COMP.16
6.10.09
Network infrastructure for online computing will provide at least 100Gb non-blocking ethernet links between compute nodes.
05/16/2025
Approved
FALSE

F-DET-COMP.9
6.10.09
All DAQ system communication with DET subsystems will be supported through proprietary fiber-based links. This includes distribution of a system-wide common clock that can be used to synchronize all DET subsystems. This also includes configuration and monitoring of all DET subsystem front end electronics.
05/16/2025
Approved
FALSE

P-DET-COMP.19
6.10.09
The DAQ system will require interfaces to the accelerator which provide timing and data exchange, and allow the accelerator to read the state and condition of detector systems.
05/16/2025
Approved
FALSE

P-DET-COMP.12
6.10.09
Fiber connected to patch panels from the DAQ Room to the external Data Center shall at a minimum be implemented with enough single mode fiber capable of supporting experimental data bandwidths with redundant 100Gb and 400Gb bidirectional network links.
05/16/2025
Approved
FALSE

P-DET-COMP.20
6.10.09
The DAQ system will transfer collected data from the local systems to an offline storage facility.
05/16/2025
Approved
FALSE

F-DET-COMP.11
6.10.09
Global Timing Unit (GTU) wil provide common timing information to all DET sub systems.
05/16/2025
Approved
FALSE

P-DET-COMP.18
6.10.09
The GTU will deliver a stable high resolution clock at the level of 100ps jitter to DET subsystems, with an option to deliver up to a 5ps jitter clock to DET subsystems requiring very high-resolution timing measurements.
05/16/2025
Approved
FALSE

G-DET-COMP.2
6.10.09
The DAQ subsystem shall consist of COTS hardware where possible, and custom electronics as needed.
05/16/2025
Approved
FALSE

F-DET-COMP.11
6.10.09
Global Timing Unit (GTU) wil provide common timing information to all DET sub systems.
05/16/2025
Approved
FALSE

P-DET-COMP.18
6.10.09
The GTU will deliver a stable high resolution clock at the level of 100ps jitter to DET subsystems, with an option to deliver up to a 5ps jitter clock to DET subsystems requiring very high-resolution timing measurements.
05/16/2025
Approved
FALSE

G-DET-COMP.3
6.10.09
The DAQ subsystem shall use COTS and Open Source software where possible, and collaboration developed software, firmware libraries and applications as needed.
05/16/2025
Approved
FALSE

G-DET-COMP.4
6.10.09
The DAQ subsystem shall distribute all experimental data generated to an external data center for supplemental and optional data processing and archival storage.
05/16/2025
Approved
FALSE

F-DET-COMP.4
6.10.09
Temperature and humidity levels in all spaces where DAQ hardware exists must be maintained within specifications defined by the manufacturer or by custom electronics operational requirements.
05/16/2025
Approved
FALSE

G-DET-COMP.5
6.10.09
The DAQ subsystem will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-COMP.1
6.10.09
DAQ related resources shall require physical space in the experimental hall (e.g. electronics racks). In the experimental hall multiple designated locations must be available to provide necessary proximity to all instrumented DET systems.
05/16/2025
Approved
FALSE

F-DET-COMP.2
6.10.09
DAQ related resources shall require physical space within the "counting house". A single separated closed space for computing resources (DAQ Room) shall be required in addition to a User occupied operations space (Control room).
05/16/2025
Approved
FALSE

F-DET-COMP.3
6.10.09
The DAQ subsystem shall be designed to operate continuously, independent of the state of the other detector subsystems.
05/16/2025
Approved
FALSE

F-DET-COMP.5
6.10.09
DAQ Room computing shall have an alternate power source available that is battery or generator backed-up for a subset of core resources in case of power outages.
05/16/2025
Approved
FALSE

F-DET-COMP.6
6.10.09
The DAQ system will provide resources for communication with DET subsystems via fiber links between the experimental hall and the DAQ room.
05/16/2025
Approved
FALSE

P-DET-COMP.17
6.10.09
Individual fiber interfaces with all DET subsystems will support at least a 10Gb serial link to DAQ online processing.
05/16/2025
Approved
FALSE

F-DET-COMP.12
6.10.09
The DAQ subsystem will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-COMP.3
6.10.09
The DAQ systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-COMP.4
6.10.09
The DAQ systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-COMP.5
6.10.09
All DAQ powered services in the experimental hall and counting house must have access to either 120V AC or 208V AC three phase power.
05/16/2025
Approved
FALSE

P-DET-COMP.10
6.10.09
DAQ Room computing shall require electrical power via raised floor distribution sufficient to support XX kW total power usage levels.
05/16/2025
Approved
FALSE

P-DET-COMP.6
6.10.09
All DAQ services in the experimental hall must have access to a "clean" ground to maintain good signal quality.
05/16/2025
Approved
FALSE

P-DET-COMP.11
6.10.09
DAQ Room computing shall require HVAC cooling via raised floor distribution sufficient to support a XX kW power outlay at tempuratures at or below 76 degrees Fahrenheit.
05/16/2025
Approved
FALSE

F-DET-COMP.14
6.10.09
The DAQ subsystem and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-COMP.1
6.10.09
The DAQ systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-COMP.3
6.10.09
The DAQ systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-COMP.2
6.10.09
The DAQ systems will require consoles, cabinets, and structural support systems to hold equipment and deliver cabling and services throughout the experimental hall, control room, and to locations in the interaction region.
05/16/2025
Approved
FALSE

P-DET-COMP.4
6.10.09
The DAQ systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

F-DET-COMP.13
6.10.09
The configuration of the DAQ subsystem within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-COMP.1
6.10.09
The DAQ systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-COMP.8
6.10.09
User management of required cabling shall be facilitated via a combination of cable trays and/or conduit or rigging between the DAQ room patch panels and the experimental hall areas where DAQ and general network fibers are required.
05/16/2025
Approved
FALSE

P-DET-COMP.7
6.10.09
All DAQ services in the experimental hall must be adequately shielded from prompt radiation from the beam crossing region of the EIC detector to minimize electronics failures.
05/16/2025
Approved
FALSE

P-DET-COMP.9
6.10.09
DAQ Room resources shall sit on a raised floor to allow for forced air, power and signal cabling to be routed to all racks.
05/16/2025
Approved
FALSE

F-DET-COMP.15
6.10.09
A structural support infrastructure must be provided that supports the weight of the DAQ subsystem and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-COMP.2
6.10.09
The DAQ systems will require consoles, cabinets, and structural support systems to hold equipment and deliver cabling and services throughout the experimental hall, control room, and to locations in the interaction region.
05/16/2025
Approved
FALSE

G-DET-COMP.6
6.10.09
The DAQ subsystem must fit within the available space in the experimental hall, assembly hall, and control rooms, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-COMP.1
6.10.09
DAQ related resources shall require physical space in the experimental hall (e.g. electronics racks). In the experimental hall multiple designated locations must be available to provide necessary proximity to all instrumented DET systems.
05/16/2025
Approved
FALSE

F-DET-COMP.2
6.10.09
DAQ related resources shall require physical space within the "counting house". A single separated closed space for computing resources (DAQ Room) shall be required in addition to a User occupied operations space (Control room).
05/16/2025
Approved
FALSE

F-DET-COMP.14
6.10.09
The DAQ subsystem and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-COMP.1
6.10.09
The DAQ systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-COMP.3
6.10.09
The DAQ systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-COMP.2
6.10.09
The DAQ systems will require consoles, cabinets, and structural support systems to hold equipment and deliver cabling and services throughout the experimental hall, control room, and to locations in the interaction region.
05/16/2025
Approved
FALSE

P-DET-COMP.4
6.10.09
The DAQ systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

F-DET-COMP.13
6.10.09
The configuration of the DAQ subsystem within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-COMP.1
6.10.09
The DAQ systems, their support systems, enclosures, and distribution systems must fit within the space constraints of their areas of installation, and leave adequate space for the delivery of other services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-COMP.8
6.10.09
User management of required cabling shall be facilitated via a combination of cable trays and/or conduit or rigging between the DAQ room patch panels and the experimental hall areas where DAQ and general network fibers are required.
05/16/2025
Approved
FALSE

P-DET-COMP.7
6.10.09
All DAQ services in the experimental hall must be adequately shielded from prompt radiation from the beam crossing region of the EIC detector to minimize electronics failures.
05/16/2025
Approved
FALSE

P-DET-COMP.9
6.10.09
DAQ Room resources shall sit on a raised floor to allow for forced air, power and signal cabling to be routed to all racks.
05/16/2025
Approved
FALSE

F-DET-COMP.15
6.10.09
A structural support infrastructure must be provided that supports the weight of the DAQ subsystem and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-COMP.2
6.10.09
The DAQ systems will require consoles, cabinets, and structural support systems to hold equipment and deliver cabling and services throughout the experimental hall, control room, and to locations in the interaction region.
05/16/2025
Approved
FALSE

DET-COMP-OFFLINE : Offline DAQ and Computing Systems (WBS 6.10.09)

DET-COMP-SC : Slow Controls (WBS 6.10.09)

G-DET-COMP-SC.1
6.10.09
The DET that will require a slow control system that provides system interlocks, interfaces, monitoring, and control.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.1
6.10.09
General network infrastructure for support of Slow Controls management, configuration and operation will be provided for all DET subsystems as well as all the general ancillary network capable equipment in the counting house and experimental hall.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.1
6.10.09
The general network infrastructure within the counting house and expeimental hall will support at a minimum 1 and 10 Gb ethernet links.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.2
6.10.09
Shared hardware and software computing components will be available for Slow Controls configuration, operation, monitoring and mangement.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.2
6.10.09
Enough computing hardware will be made available for all DET subsytems to run a minimum of 20 input/output controllers (IOCs) to encapsulate subsystem performance.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.3
6.10.09
Slow Controls will monitor and modify operational parameters of DET subsystems.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.3
6.10.09
All temperatures recorded by Slow Controls shall be measured with a minimum precision of 0.1°C.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.4
6.10.09
All voltages recorded by Slow Controls shall be measured with a minimum precision of 10mV.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.5
6.10.09
All currents recorded by Slow Controls shall be measured with a minimum precision of 1mA.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.7
6.10.09
All pressures recorded by Slow Controls shall be measured with a minimum precision of 1 mbar.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.6
6.10.09
The flow of all fluids recorded by Slow Controls shall be measured with a minimum precision of 1 lpm.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.8
6.10.09
The concentration of gases in mixtures shall be recorded by Slow Controls with a minimum precision of 1%.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.4
6.10.09
Slow Controls will manage an alarm chain and its responses.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.9
6.10.09
Slow Controls shall generate alarms with at least three levels of priority: high, low, and diagnostic.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.10
6.10.09
The alarm chain will maintain standard operation in the event of a network and/or power outage.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.5
6.10.09
Slow Controls will provide electromechanical interlocks for the DET subsystems.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.12
6.10.09
Interlock controllers and remote IO will maintain standard operation in the event of a network and/or power outage.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.11
6.10.09
All interlocks will be reported in the alarm chain with a priority level of low or high.
05/16/2025
Approved
FALSE

P-DET-COMP-SC.13
6.10.09
Interlocks will be meet a minimum performance level (PL) appropriate for the system to be interlocked.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.7
6.10.09
Slow controls will provide Experimental Physics and Industrial Controls System (EPICS) interface that will run on DAQ provided systems.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.6
6.10.09
Slow controls will provide user interfaces for the adjustment of operational parameters for DET subsystems.
05/16/2025
Approved
FALSE

F-DET-COMP-SC.8
6.10.09
Slow controls will provide collections of operational parameters that DET subsystems will be able to use as restore points.
05/16/2025
Approved
FALSE

DET-COMP-ONLINE : Online DAQ and Computing Systems

DET-INF : Infrastructure Systems (WBS 6.10.10)

G-DET-INF.1
6.10.10
There will be distinct infrastructure requirements for the assembly hall, the collider hall, and the interaction region.
05/16/2025
Approved
FALSE

G-DET-INF.2
6.10.10
All components, equipment and assemblies will comply with standards established by the EIC project.
05/16/2025
Approved
FALSE

F-DET-INF.1
6.10.10
All components, whether procured or manufactured, will, at a minimum, meet the standards specified by the EIC project AND meet the additional standards and specifications identified in these requirements.
05/16/2025
Approved
FALSE

P-DET-INF-STD-ALIGN.1
6.10.10
The main barrel and both endcaps shall be rotated 8mrad counterclockwise about the Y axis (looking top down).
05/16/2025
Approved
FALSE

P-DET-INF-STD-ALIGN.2
6.10.10
The tolerance for this measurement shall be ± 1mrad.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.1
6.10.10
Safety factors will be calculated based off yield strength.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.2
6.10.10
Parts with a safety factor of 3 or greater will be generally accepted and will not require further review.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.3
6.10.10
Parts with a safety factor of 1.5 to 3 are required to be internally reviewed to determine if it’s acceptable.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.4
6.10.10
Parts with a safety factor of 1.5 or less will be considered unacceptable.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.5
6.10.10
Bolts with a safety factor of 2 or greater will be generally accepted and will not require further review.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.6
6.10.10
Bolts with a safety factor of 1 to 2 are required to be internally reviewed to determine if it’s acceptable.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SAF.7
6.10.10
Bolts with a safety factor of 1 or less will be considered unacceptable.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SAF.8
6.10.10
Engineering judgment will be used for identifying and disregarding any singularities which may go below these minimums.
12/01/2025
Approved
FALSE

F-DET-INF.2
6.10.10
Where not governed by specific standards, components will be implemented, installed, and utilized in a manner that is consistent with industry best practices.
05/16/2025
Approved
FALSE

P-DET-INF-STD-ALIGN.1
6.10.10
The main barrel and both endcaps shall be rotated 8mrad counterclockwise about the Y axis (looking top down).
05/16/2025
Approved
FALSE

P-DET-INF-STD-ALIGN.2
6.10.10
The tolerance for this measurement shall be ± 1mrad.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.1
6.10.10
Safety factors will be calculated based off yield strength.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.2
6.10.10
Parts with a safety factor of 3 or greater will be generally accepted and will not require further review.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.3
6.10.10
Parts with a safety factor of 1.5 to 3 are required to be internally reviewed to determine if it’s acceptable.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.4
6.10.10
Parts with a safety factor of 1.5 or less will be considered unacceptable.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.5
6.10.10
Bolts with a safety factor of 2 or greater will be generally accepted and will not require further review.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.6
6.10.10
Bolts with a safety factor of 1 to 2 are required to be internally reviewed to determine if it’s acceptable.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SAF.7
6.10.10
Bolts with a safety factor of 1 or less will be considered unacceptable.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SAF.8
6.10.10
Engineering judgment will be used for identifying and disregarding any singularities which may go below these minimums.
12/01/2025
Approved
FALSE

G-DET-INF.3
6.10.10
Infrastructure systems for the assembly hall shall include all power, water, environmental cooling, cryogenics, gas handling, clean compressed air delivery, space, fire protection, Helium Leak Detection, ODH Detection and any other Personnel Safety Systems, material handling and support systems required to assemble and maintain the central detector systems.
05/16/2025
Approved
FALSE

F-DET-INF-ELEC.1
6.10.10
All detectors require isolated power and grounding from facilities power systems. This will be accomplished from existing and newly installed Delta/Wye transformers with a single point star grounding (AKA clean or magnet ground) scheme at the WAH.
05/16/2025
Approved
FALSE

P-DET-INF-ELEC.1
6.10.10
60 Amp 4 wire power (120/ 208V AC) shall be fed to each 19-inch equipment rack from a circuit breaker on the detector platform.
05/16/2025
Approved
FALSE

P-DET-INF-ELEC.2
6.10.10
Cabinets are bonded/ grounded to the appropriate clean ground.
05/16/2025
Approved
FALSE

F-DET-INF-MECH.1
6.10.10
Floors in the assembly and collider hall must be adequate to support the static and moving load of the experimental detector systems. Load limits need to be determined and verified.
05/16/2025
Approved
FALSE

P-DET-INF-MECH.2
6.10.10
A rail system for the Hadron end cap calorimeters shall be installed that is sufficient to carry 600ton and maintain a free center gap of 10 centimeters.
05/16/2025
Approved
FALSE

P-DET-INF-MECH.1
6.10.10
The floor, rails and cradle shall be capable of supporting a static or moving load of 1200 tons (central detector).
05/16/2025
Approved
FALSE

P-DET-INF-MECH.3
6.10.10
A rail system for the Lepton end cap calorimeters shall be installed that is sufficient to carry 400ton and maintain a free center gap of 10 centimeters.
05/16/2025
Approved
FALSE

G-DET-INF.4
6.10.10
Infrastructure systems for the collider hall shall include all power, water, environmental cooling, cryogenics, gas handling, clean compressed air delivery, space, fire protection, Helium Leak Detection, ODH Detection and any other Personnel Safety Systems, Cryo Protection, material handling and support systems required to operate the entire detector systems.
05/16/2025
Approved
FALSE

F-DET-INF-COOL.1
6.10.10
The WAH requires cooling capacity adequate for the heat generated by the detector, detector sub systems, detector support electronics and facility systems in the WAH. Comment: New airhandlers and cooling systems needed
05/16/2025
Approved
FALSE

P-DET-INF-COOL.2
6.10.10
Relative Humidity under 50% to prevent condensation.
05/16/2025
Approved
FALSE

P-DET-INF-COOL.1
6.10.10
The temperature in the WAH should be maintained between 20°C to 25°C
05/16/2025
Approved
FALSE

P-DET-INF-COOL.3
6.10.10
Where fan/ blower cooling is inadequate, water-cooled heat exchangers are required to maintain the ambient environment of enclosed electronic assemblies and equipment to a temperature of under 40°C.
05/16/2025
Approved
FALSE

F-DET-INF-CRYO.1
6.10.10
A cryogenic transfer system shall be provided within the experimental hall and assembly hall at IP6 to allow cryogenic distribution for the experimental solenoid.
10/23/2025
Approved
FALSE

P-DET-INF-CRYO.1
6.10.10
The cryogenic transfer system must be installed in the available space and have no interferences with new and existing infrastructure.
05/16/2025
Approved
FALSE

P-DET-INF-CRYO.3
6.10.10
To limit the coil temperature below 100k, the magnet transport shall be completed within 2 days of discconection of cryogenic services to the phase separator
10/23/2025
Approved
FALSE

P-DET-INF-CRYO.2
6.10.10
The cryogenic transfer system will have a support structure and connectors that allow the central detector to be relocated between the experimental hall and the assembly area without disconnection.
05/16/2025
Approved
FALSE

P-DET-INF-CRYO.4
6.10.10
During detector alignment, the DBX transfer line shall be flexible against magnet motion of 2" in the Y and ±1" in the X and Z direction, relative to the electronic racks.
10/23/2025
Approved
FALSE

F-DET-INF-ELEC.1
6.10.10
All detectors require isolated power and grounding from facilities power systems. This will be accomplished from existing and newly installed Delta/Wye transformers with a single point star grounding (AKA clean or magnet ground) scheme at the WAH.
05/16/2025
Approved
FALSE

P-DET-INF-ELEC.1
6.10.10
60 Amp 4 wire power (120/ 208V AC) shall be fed to each 19-inch equipment rack from a circuit breaker on the detector platform.
05/16/2025
Approved
FALSE

P-DET-INF-ELEC.2
6.10.10
Cabinets are bonded/ grounded to the appropriate clean ground.
05/16/2025
Approved
FALSE

F-DET-INF-GAS.1
6.10.10
Gas based detectors will require the appropriate gas mixing and handling systems.
05/16/2025
Approved
FALSE

P-DET-INF-GAS.1
6.10.10
Gas based detectors shall be provided with the appropriate gas handling systems.
05/16/2025
Approved
FALSE

F-DET-INF-MECH.1
6.10.10
Floors in the assembly and collider hall must be adequate to support the static and moving load of the experimental detector systems. Load limits need to be determined and verified.
05/16/2025
Approved
FALSE

P-DET-INF-MECH.2
6.10.10
A rail system for the Hadron end cap calorimeters shall be installed that is sufficient to carry 600ton and maintain a free center gap of 10 centimeters.
05/16/2025
Approved
FALSE

P-DET-INF-MECH.1
6.10.10
The floor, rails and cradle shall be capable of supporting a static or moving load of 1200 tons (central detector).
05/16/2025
Approved
FALSE

P-DET-INF-MECH.3
6.10.10
A rail system for the Lepton end cap calorimeters shall be installed that is sufficient to carry 400ton and maintain a free center gap of 10 centimeters.
05/16/2025
Approved
FALSE

G-DET-INF.5
6.10.10
Infrastructure systems for the interaction region shall include all power, water, environmental cooling, cryogenics, gas handling, space, material handling and support systems required to assemble, operate and maintain the far forward and far backward detector systems.
05/16/2025
Approved
FALSE

F-DET-INF-ELEC.1
6.10.10
All detectors require isolated power and grounding from facilities power systems. This will be accomplished from existing and newly installed Delta/Wye transformers with a single point star grounding (AKA clean or magnet ground) scheme at the WAH.
05/16/2025
Approved
FALSE

P-DET-INF-ELEC.1
6.10.10
60 Amp 4 wire power (120/ 208V AC) shall be fed to each 19-inch equipment rack from a circuit breaker on the detector platform.
05/16/2025
Approved
FALSE

P-DET-INF-ELEC.2
6.10.10
Cabinets are bonded/ grounded to the appropriate clean ground.
05/16/2025
Approved
FALSE

G-DET-INF.6
6.10.10
Infrastructure systems shall provide adequate space, environmental cooling, and distribution for DAQ and local computing.
05/16/2025
Approved
FALSE

G-DET-INF.7
6.10.10
Space and facilities for the experimental control room and operations shall be preserved.
05/16/2025
Approved
FALSE

G-DET-INF.8
6.10.10
Where feasible, existing infrastructure systems will be reused.
05/16/2025
Approved
FALSE

F-DET-INF-MECH.3
6.10.10
Cradles, carriages, platforms and other support systems from the STAR experiment shall be preserved for reuse.
05/16/2025
Approved
FALSE

F-DET-INF-MECH.2
6.10.10
The existing rail system used to move the detector from the assembly hall to the collider hall should be preserved.
05/16/2025
Approved
FALSE

F-DET-INF-MECH.4
6.10.10
The existing crane systems in the assembly hall and collider hall shall be preserved.
05/16/2025
Approved
FALSE

G-DET-INF.9
6.10.10
The infrastructure systems will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-INF.3
6.10.10
The infrastructure systems will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continuous operations.
12/01/2025
Approved
FALSE

F-DET-INF.4
6.10.10
The configuration of the infrastructure systems within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.1
6.10.10
Area needed around pfRICH: 2000 cm2 + 10% = 2200 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.2
6.10.10
Area needed around EEEMcal: 2150cm2 + 10% = 2365 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.3
6.10.10
Area needed between CF tube and dRICH: 4350 cm2 + 10% = 4785 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.4
6.10.10
Area needed between dRICH boxes: 4800 cm2 + 10% = 5280 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.5
6.10.10
Area needed between dRICH and HCAL: 5650 cm2 + 10% = 6215 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.7
6.10.10
The positional tolerance of the cradle shall be within ±2mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.8
6.10.10
The adjustability of the cradle shall be at least ±25mm in the in the X,Z directions, and ±10mm in the Y direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.9
6.10.10
The positional tolerance of the of the Global Support Tube shall be within ±3mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.10
6.10.10
The adjustability of the Global Support Tube shall be at least ±10mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.11
6.10.10
The positional tolerance of the Pixel Support Tube shall be within ±1mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.12
6.10.10
The adjustability of the Pixel Support Tube shall be at least ±3mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.13
6.10.10
The positional tolerance of the beampipe shall be within ±1mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.15
6.10.10
The adjustability of the bellows shall be at least ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.14
6.10.10
The rotational tolerance of the beampipe shall be within ±1mm mrad in the X, Y directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.16
6.10.10
The rotational adjustability of the flanges shall be at least ±1 degree in the X, Y directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.6
6.10.10
Subassembly weight should not exceed 90% of the assembly hall's 40 ton crane capacity to not be a critical lift.
12/01/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.7
6.10.10
Subassembly weight should not exceed 90% of the experimental hall's 20 ton crane capacity to not be a critical lift.
12/01/2025
Approved
FALSE

F-DET-INF.6
6.10.10
A structural support infrastructure must be provided that supports the weight of the infrastructure systems and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-INF-CRYO.2
6.10.10
The cryogenic transfer system will have a support structure and connectors that allow the central detector to be relocated between the experimental hall and the assembly area without disconnection.
05/16/2025
Approved
FALSE

P-DET-INF-STD-RCS.2
6.10.10
The RCS beampipe shall be supported by either the South Platform or the Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-RCS.3
6.10.10
If extra steel is needed for the fringe field, then support for it shall also be provided by either the South Platform or Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.1
6.10.10
The weight limit of 1200 metric tons of the floor shall not be exceeded.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.2
6.10.10
The combined weight of the Central Barrel shall not exceed 1200 metric tons.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.4
6.10.10
The combined weight of both halves of the Hadron endcap shall not exceed 275 metric tons.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.3
6.10.10
The combined weight of both halves of the Hadron endcap shall not exceed 450 metric tons.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.5
6.10.10
Without regard to dynamic response, the detector structure must withstand an additional 1/4 g loading in any direction, in addition to existing loads.
12/01/2025
Approved
FALSE

F-DET-INF.5
6.10.10
The infrastructure systems and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-INF-CRYO.1
6.10.10
The cryogenic transfer system must be installed in the available space and have no interferences with new and existing infrastructure.
05/16/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.1
6.10.10
Carbon Fiber Tube adjustments in the beampipe shall have an angular tolerance of ±1 mrad.
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.2
6.10.10
Carbon Fiber Tube adjustments in the Barrel Emcal will be within ±5m .
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.3
6.10.10
Carbon Fiber Tube adjustments in the STAR Cradle will be within ±~1/8” (4mm).
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.4
6.10.10
The Carbon Fiber Tube shall be able to be located within 12 mm.
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.5
6.10.10
The Barrel Emcal shall be able to be located within 5 mm.
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.6
6.10.10
The STAR Cradle shall be able to be located within 4 mm.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.1
6.10.10
Inner Detectors will have a minimum clearance to the beampipe of 5mm all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.2
6.10.10
For Inner Detectors that will be installed over flanges then the minimum clearance will be 5mm to the flange all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.3
6.10.10
All other central detectors will have a minimum clearance to the beampipe of 10mm all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.4
6.10.10
For all other central detectors that will be installed over flanges then the minimum clearance will be 10mm to the flange all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.5
6.10.10
Endcaps will have a minimum clearance to the beampipe of 30mm all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-RCS.1
6.10.10
Endcaps shall have cutouts to accommodate spaces needed for the RCS beampipe. The minimum clearance shall be 30mm
12/01/2025
Approved
FALSE

P-DET-INF-STD-RCS.2
6.10.10
The RCS beampipe shall be supported by either the South Platform or the Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-RCS.3
6.10.10
If extra steel is needed for the fringe field, then support for it shall also be provided by either the South Platform or Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.1
6.10.10
Area needed around pfRICH: 2000 cm2 + 10% = 2200 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.2
6.10.10
Area needed around EEEMcal: 2150cm2 + 10% = 2365 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.3
6.10.10
Area needed between CF tube and dRICH: 4350 cm2 + 10% = 4785 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.4
6.10.10
Area needed between dRICH boxes: 4800 cm2 + 10% = 5280 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.5
6.10.10
Area needed between dRICH and HCAL: 5650 cm2 + 10% = 6215 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.6
6.10.10
The central detector and infrastructure must be able to fit through the doorway between the experimental and assembly halls, which is 8.2 meters wide and 8.2 meters high.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.7
6.10.10
The positional tolerance of the cradle shall be within ±2mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.8
6.10.10
The adjustability of the cradle shall be at least ±25mm in the in the X,Z directions, and ±10mm in the Y direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.9
6.10.10
The positional tolerance of the of the Global Support Tube shall be within ±3mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.10
6.10.10
The adjustability of the Global Support Tube shall be at least ±10mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.11
6.10.10
The positional tolerance of the Pixel Support Tube shall be within ±1mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.12
6.10.10
The adjustability of the Pixel Support Tube shall be at least ±3mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.13
6.10.10
The positional tolerance of the beampipe shall be within ±1mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.15
6.10.10
The adjustability of the bellows shall be at least ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.14
6.10.10
The rotational tolerance of the beampipe shall be within ±1mm mrad in the X, Y directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.16
6.10.10
The rotational adjustability of the flanges shall be at least ±1 degree in the X, Y directions.
12/01/2025
Approved
FALSE

F-DET-INF.7
6.10.10
Predefined detector envelopes shall not be infringed upon.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.1
6.10.10
Area needed around pfRICH: 2000 cm2 + 10% = 2200 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.2
6.10.10
Area needed around EEEMcal: 2150cm2 + 10% = 2365 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.4
6.10.10
Area needed between dRICH boxes: 4800 cm2 + 10% = 5280 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.3
6.10.10
Area needed between CF tube and dRICH: 4350 cm2 + 10% = 4785 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.5
6.10.10
Area needed between dRICH and HCAL: 5650 cm2 + 10% = 6215 cm2
05/16/2025
Approved
FALSE

G-DET-INF.10
6.10.10
The infrastructure systems must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-INF.4
6.10.10
The configuration of the infrastructure systems within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.1
6.10.10
Area needed around pfRICH: 2000 cm2 + 10% = 2200 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.2
6.10.10
Area needed around EEEMcal: 2150cm2 + 10% = 2365 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.3
6.10.10
Area needed between CF tube and dRICH: 4350 cm2 + 10% = 4785 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.4
6.10.10
Area needed between dRICH boxes: 4800 cm2 + 10% = 5280 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.5
6.10.10
Area needed between dRICH and HCAL: 5650 cm2 + 10% = 6215 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.7
6.10.10
The positional tolerance of the cradle shall be within ±2mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.8
6.10.10
The adjustability of the cradle shall be at least ±25mm in the in the X,Z directions, and ±10mm in the Y direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.9
6.10.10
The positional tolerance of the of the Global Support Tube shall be within ±3mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.10
6.10.10
The adjustability of the Global Support Tube shall be at least ±10mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.11
6.10.10
The positional tolerance of the Pixel Support Tube shall be within ±1mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.12
6.10.10
The adjustability of the Pixel Support Tube shall be at least ±3mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.13
6.10.10
The positional tolerance of the beampipe shall be within ±1mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.15
6.10.10
The adjustability of the bellows shall be at least ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.14
6.10.10
The rotational tolerance of the beampipe shall be within ±1mm mrad in the X, Y directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.16
6.10.10
The rotational adjustability of the flanges shall be at least ±1 degree in the X, Y directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.6
6.10.10
Subassembly weight should not exceed 90% of the assembly hall's 40 ton crane capacity to not be a critical lift.
12/01/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.7
6.10.10
Subassembly weight should not exceed 90% of the experimental hall's 20 ton crane capacity to not be a critical lift.
12/01/2025
Approved
FALSE

F-DET-INF.6
6.10.10
A structural support infrastructure must be provided that supports the weight of the infrastructure systems and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-INF-CRYO.2
6.10.10
The cryogenic transfer system will have a support structure and connectors that allow the central detector to be relocated between the experimental hall and the assembly area without disconnection.
05/16/2025
Approved
FALSE

P-DET-INF-STD-RCS.2
6.10.10
The RCS beampipe shall be supported by either the South Platform or the Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-RCS.3
6.10.10
If extra steel is needed for the fringe field, then support for it shall also be provided by either the South Platform or Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.1
6.10.10
The weight limit of 1200 metric tons of the floor shall not be exceeded.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.2
6.10.10
The combined weight of the Central Barrel shall not exceed 1200 metric tons.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.4
6.10.10
The combined weight of both halves of the Hadron endcap shall not exceed 275 metric tons.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.3
6.10.10
The combined weight of both halves of the Hadron endcap shall not exceed 450 metric tons.
05/16/2025
Approved
FALSE

P-DET-INF-STD-WEIGHT.5
6.10.10
Without regard to dynamic response, the detector structure must withstand an additional 1/4 g loading in any direction, in addition to existing loads.
12/01/2025
Approved
FALSE

F-DET-INF.5
6.10.10
The infrastructure systems and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-INF-CRYO.1
6.10.10
The cryogenic transfer system must be installed in the available space and have no interferences with new and existing infrastructure.
05/16/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.1
6.10.10
Carbon Fiber Tube adjustments in the beampipe shall have an angular tolerance of ±1 mrad.
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.2
6.10.10
Carbon Fiber Tube adjustments in the Barrel Emcal will be within ±5m .
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.3
6.10.10
Carbon Fiber Tube adjustments in the STAR Cradle will be within ±~1/8” (4mm).
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.4
6.10.10
The Carbon Fiber Tube shall be able to be located within 12 mm.
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.5
6.10.10
The Barrel Emcal shall be able to be located within 5 mm.
12/01/2025
Approved
FALSE

P-DET-INF-STD-MECHCLR.6
6.10.10
The STAR Cradle shall be able to be located within 4 mm.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.1
6.10.10
Inner Detectors will have a minimum clearance to the beampipe of 5mm all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.2
6.10.10
For Inner Detectors that will be installed over flanges then the minimum clearance will be 5mm to the flange all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.3
6.10.10
All other central detectors will have a minimum clearance to the beampipe of 10mm all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.4
6.10.10
For all other central detectors that will be installed over flanges then the minimum clearance will be 10mm to the flange all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-PIPECLR.5
6.10.10
Endcaps will have a minimum clearance to the beampipe of 30mm all around.
12/01/2025
Approved
FALSE

P-DET-INF-STD-RCS.1
6.10.10
Endcaps shall have cutouts to accommodate spaces needed for the RCS beampipe. The minimum clearance shall be 30mm
12/01/2025
Approved
FALSE

P-DET-INF-STD-RCS.2
6.10.10
The RCS beampipe shall be supported by either the South Platform or the Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-RCS.3
6.10.10
If extra steel is needed for the fringe field, then support for it shall also be provided by either the South Platform or Central Barrel.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.1
6.10.10
Area needed around pfRICH: 2000 cm2 + 10% = 2200 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.2
6.10.10
Area needed around EEEMcal: 2150cm2 + 10% = 2365 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.3
6.10.10
Area needed between CF tube and dRICH: 4350 cm2 + 10% = 4785 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.4
6.10.10
Area needed between dRICH boxes: 4800 cm2 + 10% = 5280 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.5
6.10.10
Area needed between dRICH and HCAL: 5650 cm2 + 10% = 6215 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.6
6.10.10
The central detector and infrastructure must be able to fit through the doorway between the experimental and assembly halls, which is 8.2 meters wide and 8.2 meters high.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.7
6.10.10
The positional tolerance of the cradle shall be within ±2mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.8
6.10.10
The adjustability of the cradle shall be at least ±25mm in the in the X,Z directions, and ±10mm in the Y direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.9
6.10.10
The positional tolerance of the of the Global Support Tube shall be within ±3mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.10
6.10.10
The adjustability of the Global Support Tube shall be at least ±10mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.11
6.10.10
The positional tolerance of the Pixel Support Tube shall be within ±1mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.12
6.10.10
The adjustability of the Pixel Support Tube shall be at least ±3mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.13
6.10.10
The positional tolerance of the beampipe shall be within ±1mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.15
6.10.10
The adjustability of the bellows shall be at least ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.14
6.10.10
The rotational tolerance of the beampipe shall be within ±1mm mrad in the X, Y directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.16
6.10.10
The rotational adjustability of the flanges shall be at least ±1 degree in the X, Y directions.
12/01/2025
Approved
FALSE

F-DET-INF.7
6.10.10
Predefined detector envelopes shall not be infringed upon.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.1
6.10.10
Area needed around pfRICH: 2000 cm2 + 10% = 2200 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.2
6.10.10
Area needed around EEEMcal: 2150cm2 + 10% = 2365 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.4
6.10.10
Area needed between dRICH boxes: 4800 cm2 + 10% = 5280 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.3
6.10.10
Area needed between CF tube and dRICH: 4350 cm2 + 10% = 4785 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.5
6.10.10
Area needed between dRICH and HCAL: 5650 cm2 + 10% = 6215 cm2
05/16/2025
Approved
FALSE

DET-INF-STD : Infrastructure Standards, Clearances, and Tolerances (WBS 6.10.10)

DET-INF-STD-ALIGN : Detector Alignment (WBS 6.10.10)

DET-INF-STD-MECHCLR : Mechanical Adjustment Clearances (WBS 6.10.10)

DET-INF-STD-PIPECLR : Beampipe Clearances (WBS 6.10.10)

DET-INF-STD-RCS : RCS System (WBS 6.10.10)

DET-INF-STD-SAF : Safety Factors (WBS 6.10.10)

DET-INF-STD-SAF EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-INF-STD-SAF.1
6.10.10
Safety factors will be calculated based off yield strength.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.2
6.10.10
Parts with a safety factor of 3 or greater will be generally accepted and will not require further review.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.3
6.10.10
Parts with a safety factor of 1.5 to 3 are required to be internally reviewed to determine if it’s acceptable.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.4
6.10.10
Parts with a safety factor of 1.5 or less will be considered unacceptable.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.5
6.10.10
Bolts with a safety factor of 2 or greater will be generally accepted and will not require further review.
05/16/2025
Approved
FALSE

P-DET-INF-STD-SAF.6
6.10.10
Bolts with a safety factor of 1 to 2 are required to be internally reviewed to determine if it’s acceptable.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SAF.7
6.10.10
Bolts with a safety factor of 1 or less will be considered unacceptable.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SAF.8
6.10.10
Engineering judgment will be used for identifying and disregarding any singularities which may go below these minimums.
12/01/2025
Approved
FALSE

DET-INF-STD-SVCGAP : Services, Gaps, and Clearances (WBS 6.10.10)

DET-INF-STD-SVCGAP EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-INF-STD-SVCGAP.1
6.10.10
Area needed around pfRICH: 2000 cm2 + 10% = 2200 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.2
6.10.10
Area needed around EEEMcal: 2150cm2 + 10% = 2365 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.3
6.10.10
Area needed between CF tube and dRICH: 4350 cm2 + 10% = 4785 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.4
6.10.10
Area needed between dRICH boxes: 4800 cm2 + 10% = 5280 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.5
6.10.10
Area needed between dRICH and HCAL: 5650 cm2 + 10% = 6215 cm2
05/16/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.6
6.10.10
The central detector and infrastructure must be able to fit through the doorway between the experimental and assembly halls, which is 8.2 meters wide and 8.2 meters high.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.7
6.10.10
The positional tolerance of the cradle shall be within ±2mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.8
6.10.10
The adjustability of the cradle shall be at least ±25mm in the in the X,Z directions, and ±10mm in the Y direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.9
6.10.10
The positional tolerance of the of the Global Support Tube shall be within ±3mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.10
6.10.10
The adjustability of the Global Support Tube shall be at least ±10mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.11
6.10.10
The positional tolerance of the Pixel Support Tube shall be within ±1mm in all directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.12
6.10.10
The adjustability of the Pixel Support Tube shall be at least ±3mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.13
6.10.10
The positional tolerance of the beampipe shall be within ±1mm in the X,Y directions, and ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.14
6.10.10
The rotational tolerance of the beampipe shall be within ±1mm mrad in the X, Y directions.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.15
6.10.10
The adjustability of the bellows shall be at least ±5mm in the Z direction.
12/01/2025
Approved
FALSE

P-DET-INF-STD-SVCGAP.16
6.10.10
The rotational adjustability of the flanges shall be at least ±1 degree in the X, Y directions.
12/01/2025
Approved
FALSE

DET-INF-STD-WEIGHT : Weight Limits (WBS 6.10.10)

DET-INF-COOL : Heating and Cooling Infrastructure

DET-INF-COOL-CW : Chilled Water Systems

DET-INF-COOL-HR : Heat Rejection Systems

DET-INF-COOL-HVAC : Heating, Ventilation and Air Conditioning Systems

DET-INF-COOL-LCW : Low Conductivity Water

DET-INF-COOL-OTH : Other Heating/Cooling Systems

DET-INF-CRYO : Cryogenic Infrastructure

DET-INF-ELEC : Electrical Infrastructure

DET-INF-ELEC-DIST : Power Distribution

DET-INF-ELEC-UPS : Uninterruptable Power Supplies

DET-INF-GAS : Gas Infrastructure

DET-INF-MECH : Mechanical, Structural and Plumbing Infrastructure

DET-INF-SPACE : Space Management

DET-INF-VAC : Vacuum Infrastructure

DET-ANC : Ancillary Detector Systems (WBS 6.10.11)

G-DET-ANC.1
6.10.11
The EIC ancillary detectors should provide a measurement of particle scattering at small angles.
05/16/2025
Approved
FALSE

F-DET-ANC.4
6.10.11
The roman pot detectors shall provide a means to measure charged particles close to the beam core.
05/16/2025
Approved
FALSE

F-DET-ANC.5
6.10.11
The zero-degree calorimeter shall provide a means to measure neutral particles at small angles.
05/16/2025
Approved
FALSE

G-DET-ANC.2
6.10.11
The forward ancillary detectors shall provide a means to measure forward going charged particles (including those close to the beam core), forward going neutral particles, and to tag charged and neutral particles following decay.
05/16/2025
Approved
FALSE

F-DET-ANC.2
6.10.11
The B0 system shall provide a means to measure charged particles in the forward direction and to tag neutral particles in the forward direction.
05/16/2025
Approved
FALSE

F-DET-ANC.3
6.10.11
The off-momentum detectors shall provide a means to measure charged particles (e.g. primarily protons and/or other decay particles), where this particles have a different magnetic rigidity than the beam being used.
05/16/2025
Approved
FALSE

G-DET-ANC.3
6.10.11
The backward ancillary detectors shall provide a means to measure scattered electrons.
05/16/2025
Approved
FALSE

F-DET-ANC.1
6.10.11
The Low Q² detectors shall provide a means to measure scattered electrons at small angles in the backward direction.
05/16/2025
Approved
FALSE

G-DET-ANC.4
6.10.11
The EIC ancillary detectors will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-ANC-B0.3
6.10.11
B0-system must fit and be integrated into the warm area of the B0-dipole. The B0-systems shall require appropriate power and cabling to support operation of the detector elements.Should have survey marks to determine their physical location
05/16/2025
Approved
FALSE

P-DET-ANC-B0.6
6.10.11
B0 tracker shall provide momentum resolution p_T< 7% for charged particles with p_T>1GeV
08/05/2025
Approved
FALSE

P-DET-ANC-B0.9
6.10.11
B0-calorimeter transverse cell size shall be < 2 [cm] in X and < 2[cm] in Y
08/05/2025
Approved
FALSE

P-DET-ANC-B0.8
6.10.11
B0-calorimeter thickness shall be <20 [cm]
08/05/2025
Approved
FALSE

P-DET-ANC-B0.11
6.10.11
detectors, readout electronics, and support system must tolerate the magnetic field in the subsystem location.
08/05/2025
Approved
FALSE

F-DET-ANC-B0.5
6.10.11
B0-system must operate at a full projected EIC luminosity and must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies
05/16/2025
Approved
FALSE

P-DET-ANC-B0.12
6.10.11
Must handle a data rate and operate reliably at a full projected EIC luminosity (<1MHz)
08/05/2025
Approved
FALSE

P-DET-ANC-B0.13
6.10.11
B0 should tolerate radiation close up to peak 5x 10^9 neutron fluence / fb-1
08/05/2025
Approved
FALSE

F-DET-ANC-LOWQ2.5
6.10.11
LowQ2 system must operate at a full projected EIC luminosity
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.6
6.10.11
Low- Q² tagger will be able to measure the momentum of more than 10 electrons per bunch crossing.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.14
6.10.11
The Low-Q2 detectors must handle a data rate and operate reliably at a full projected EIC luminosity.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.9
6.10.11
The position of the Low-Q² tracker should be removable and adjustable to accommodate different running conditions.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.16
6.10.11
The performance of the Low-Q2 detector will be dependent on the characteristics of the electron beam pipe exit window.
05/16/2025
Approved
FALSE

F-DET-ANC-LOWQ2.6
6.10.11
LowQ2 system must be resistant to extreme background conditions (synchrotron radiation, bremsstrahlung events and slow neutrons in particular) at the levels specified by the simulation studies
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.15
6.10.11
The Low-Q2 detector must be protected from magnetic interference.
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.1
6.10.11
The luminosity detectors shall be composed of a Pair Spectrometer (PS) with 2 stations (above and below zero degree line) with tracking layers in front, and a direct photon CAL along the zero degree line.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.1
6.10.11
The PS CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E) .
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.2
6.10.11
The PS CALs, direct CAL, and trackers shall all provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.3
6.10.11
The PS CAL dimensions shall be 18 [cm] in X , 18 [cm] in Y, and 18 [cm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.4
6.10.11
The PS CAL readout granularity shall be 3 [mm] in X, 3 [mm] in Y, and 3 [mm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.5
6.10.11
The PS tracker dimensions shall cover the transverse face of the calorimeter with no acceptance gaps.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.7
6.10.11
The direct photon CAL dimensions is expected to be similar to the PS CAL
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.6
6.10.11
The direct photon CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E).
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.8
6.10.11
The direct photon CAL readout granularity is expecte to be more course grained than the PS CAL
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.2
6.10.11
The PS must measure the energy and position of e+e- pairs from bremsstrahlung conversions. The direct photon CAL must measure the energy of the large bremsstrahlung flux while mitigating the high rates of background synchrotron radiation.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.1
6.10.11
The PS CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E) .
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.2
6.10.11
The PS CALs, direct CAL, and trackers shall all provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.3
6.10.11
The PS CAL dimensions shall be 18 [cm] in X , 18 [cm] in Y, and 18 [cm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.4
6.10.11
The PS CAL readout granularity shall be 3 [mm] in X, 3 [mm] in Y, and 3 [mm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.5
6.10.11
The PS tracker dimensions shall cover the transverse face of the calorimeter with no acceptance gaps.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.7
6.10.11
The direct photon CAL dimensions is expected to be similar to the PS CAL
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.6
6.10.11
The direct photon CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E).
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.8
6.10.11
The direct photon CAL readout granularity is expecte to be more course grained than the PS CAL
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.3
6.10.11
Must be resistant to extreme background conditions, magnetic interference and radiation.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.9
6.10.11
Some components of the luminosity detector and its electronics must be protected from magnetic interference and radiation.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.10
6.10.11
The two luminosity detector dipoles must be connected by a beamline that is under vacuum.
05/16/2025
Approved
FALSE

F-DET-ANC-OFFMO.3
6.10.11
Must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.10
6.10.11
OFFM should tolerate radiation close up to peak 1x 10^8 neutron fluence / fb -1 [TBD]
08/05/2025
Approved
FALSE

P-DET-ANC-OFFMO.11
6.10.11
Must handle data rate and operate reliably at full projected EIC luminosity (<1MHz)
08/05/2025
Approved
FALSE

F-DET-ANC-ROMAN.2
6.10.11
RPOT will be integrated into the accelerator vacuum system.
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.8
6.10.11
The RPOTs need cooling of ~100 Watts per active layer,
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.9
6.10.11
RPOT layers should be movable in X and Y and extractable to the home position during the injection with a prediction of … [TBD]
08/05/2025
Approved
FALSE

F-DET-ANC-ROMAN.4
6.10.11
Must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.10
6.10.11
RPOT should tolerate radiation close up to peak 5x 10^7 neutron fluence / fb -1
08/05/2025
Approved
FALSE

P-DET-ANC-ROMAN.11
6.10.11
Must handle a data rate and operate reliably at a full projected EIC luminosity (<1MHz)
08/05/2025
Approved
FALSE

F-DET-ANC-ZDC.4
6.10.11
Must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.5
6.10.11
Must handle a data rate and operate reliably at a full projected EIC luminosity and background (<1MHz)
08/05/2025
Approved
FALSE

P-DET-ANC-ZDC.9
6.10.11
ZDC should tolerate radiation close up to peak 3.5 x 10^9 neutron fluence / fb -1
08/05/2025
Approved
FALSE

P-DET-ANC-ZDC.10
6.10.11
Ability to identify bunch crossing (Timing < 10ns)
08/05/2025
Approved
FALSE

F-DET-ANC-ZDC.6
6.10.11
Must be compact enough to fit in the limited space allocated in the accelerator tunnel
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.2
6.10.11
ZDC system active area will have dimensions 60 [cm] in X and 60 [cm] in Y and <200 [cm] in Z
08/05/2025
Approved
FALSE

F-DET-ANC.6
6.10.11
The EIC ancillary detectors will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.7
6.10.11
The Low-Q² system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.8
6.10.11
The Low-Q² system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.7
6.10.11
The ZDC system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.8
6.10.11
The ZDC system shall provide power supplies for bias, HV and low voltages.
05/16/2025
Approved
FALSE

P-DET-ANC.4
6.10.11
The ancillary systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-ANC.3
6.10.11
The ancillary systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ANC.5
6.10.11
The ancillary systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

F-DET-ANC.8
6.10.11
The EIC ancillary detectors and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.7
6.10.11
The Low-Q² system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.8
6.10.11
The Low-Q² system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.7
6.10.11
The ZDC system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.8
6.10.11
The ZDC system shall provide power supplies for bias, HV and low voltages.
05/16/2025
Approved
FALSE

P-DET-ANC.1
6.10.11
The ancillary detectors and support system must fit within the constraints of the surrounding systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ANC.2
6.10.11
The ancillary systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-ANC.4
6.10.11
The ancillary systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-ANC.3
6.10.11
The ancillary systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ANC.5
6.10.11
The ancillary systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

F-DET-ANC.7
6.10.11
The configuration of the EIC ancillary detectors within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-ANC.1
6.10.11
The ancillary detectors and support system must fit within the constraints of the surrounding systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-ANC.9
6.10.11
A structural support infrastructure must be provided that supports the weight of the EIC ancillary detectors and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-ANC.2
6.10.11
The ancillary systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

G-DET-ANC.5
6.10.11
The EIC ancillary detectors must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-ANC-B0.3
6.10.11
B0-system must fit and be integrated into the warm area of the B0-dipole. The B0-systems shall require appropriate power and cabling to support operation of the detector elements.Should have survey marks to determine their physical location
05/16/2025
Approved
FALSE

P-DET-ANC-B0.6
6.10.11
B0 tracker shall provide momentum resolution p_T< 7% for charged particles with p_T>1GeV
08/05/2025
Approved
FALSE

P-DET-ANC-B0.9
6.10.11
B0-calorimeter transverse cell size shall be < 2 [cm] in X and < 2[cm] in Y
08/05/2025
Approved
FALSE

P-DET-ANC-B0.8
6.10.11
B0-calorimeter thickness shall be <20 [cm]
08/05/2025
Approved
FALSE

P-DET-ANC-B0.11
6.10.11
detectors, readout electronics, and support system must tolerate the magnetic field in the subsystem location.
08/05/2025
Approved
FALSE

F-DET-ANC-LOWQ2.4
6.10.11
Low-Q² tagger will be positioned next to the outgoing electron beampipe, between the B2eR dipole and Q3eR quadrupole.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.1
6.10.11
Low-Q2 will have one or more tagger stations to cover the maximum momentum acceptance
05/16/2025
Approved
FALSE

F-DET-ANC.8
6.10.11
The EIC ancillary detectors and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.7
6.10.11
The Low-Q² system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.8
6.10.11
The Low-Q² system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.7
6.10.11
The ZDC system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.8
6.10.11
The ZDC system shall provide power supplies for bias, HV and low voltages.
05/16/2025
Approved
FALSE

P-DET-ANC.1
6.10.11
The ancillary detectors and support system must fit within the constraints of the surrounding systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-ANC.2
6.10.11
The ancillary systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-ANC.4
6.10.11
The ancillary systems will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-ANC.3
6.10.11
The ancillary systems will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-ANC.5
6.10.11
The ancillary systems will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

F-DET-ANC.7
6.10.11
The configuration of the EIC ancillary detectors within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-ANC.1
6.10.11
The ancillary detectors and support system must fit within the constraints of the surrounding systems and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-ANC.9
6.10.11
A structural support infrastructure must be provided that supports the weight of the EIC ancillary detectors and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-ANC.2
6.10.11
The ancillary systems will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

DET-ANC-B0 : B-Zero Detectors (WBS 6.10.11)

G-DET-ANC-B0.1
6.10.11
The B0 system will provide measurements of charged particles in the forward directions.
05/16/2025
Approved
FALSE

F-DET-ANC-B0.4
6.10.11
B0-system shall measure photons down to 100 MeV.
05/16/2025
Approved
FALSE

P-DET-ANC-B0.4
6.10.11
The B0-tracking system shall provide a low material budget: < 5% X0.
08/05/2025
Approved
FALSE

P-DET-ANC-B0.10
6.10.11
B0-calorimeter should provide an energy resolution for photons s(E)/E < 20%/sqrt(E) + (3)%.
08/05/2025
Approved
FALSE

F-DET-ANC-B0.1
6.10.11
Silicon detector with sufficient timing and spatial resolution will provide tracking measurements of the charged particles in the hadron-outgoing direction.
05/16/2025
Approved
FALSE

P-DET-ANC-B0.2
6.10.11
B0-tracker shall have a timing resolution < 35ps
08/05/2025
Approved
FALSE

P-DET-ANC-B0.1
6.10.11
B0- tracker shall have a spatial resolution in (x,y) < 20um
08/05/2025
Approved
FALSE

P-DET-ANC-B0.3
6.10.11
B0-tracker shall have at least 4 layers
08/05/2025
Approved
FALSE

F-DET-ANC-B0.5
6.10.11
B0-system must operate at a full projected EIC luminosity and must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies
05/16/2025
Approved
FALSE

P-DET-ANC-B0.12
6.10.11
Must handle a data rate and operate reliably at a full projected EIC luminosity (<1MHz)
08/05/2025
Approved
FALSE

P-DET-ANC-B0.13
6.10.11
B0 should tolerate radiation close up to peak 5x 10^9 neutron fluence / fb-1
08/05/2025
Approved
FALSE

G-DET-ANC-B0.2
6.10.11
The B0-system will tag protons at higher angles (especially important for lower beam energies).
05/16/2025
Approved
FALSE

F-DET-ANC-B0.2
6.10.11
B0-system shall provide theta coverage in the range 5.5 < θ < 20.0 mrad (4.6 < ƞ < 5.9) with respect to the hadron beam line.
05/16/2025
Approved
FALSE

P-DET-ANC-B0.6
6.10.11
B0 tracker shall provide momentum resolution p_T< 7% for charged particles with p_T>1GeV
08/05/2025
Approved
FALSE

G-DET-ANC-B0.3
6.10.11
The B0 system will provide measurements of forward photons and pi0.
05/16/2025
Approved
FALSE

F-DET-ANC-B0.4
6.10.11
B0-system shall measure photons down to 100 MeV.
05/16/2025
Approved
FALSE

P-DET-ANC-B0.4
6.10.11
The B0-tracking system shall provide a low material budget: < 5% X0.
08/05/2025
Approved
FALSE

P-DET-ANC-B0.10
6.10.11
B0-calorimeter should provide an energy resolution for photons s(E)/E < 20%/sqrt(E) + (3)%.
08/05/2025
Approved
FALSE

DET-ANC-B0 EXTERNALS
Requirements who's parents are in other sub-systems.

F-DET-ANC-B0.3
6.10.11
B0-system must fit and be integrated into the warm area of the B0-dipole. The B0-systems shall require appropriate power and cabling to support operation of the detector elements.Should have survey marks to determine their physical location
05/16/2025
Approved
FALSE

P-DET-ANC-B0.6
6.10.11
B0 tracker shall provide momentum resolution p_T< 7% for charged particles with p_T>1GeV
08/05/2025
Approved
FALSE

P-DET-ANC-B0.9
6.10.11
B0-calorimeter transverse cell size shall be < 2 [cm] in X and < 2[cm] in Y
08/05/2025
Approved
FALSE

P-DET-ANC-B0.8
6.10.11
B0-calorimeter thickness shall be <20 [cm]
08/05/2025
Approved
FALSE

P-DET-ANC-B0.11
6.10.11
detectors, readout electronics, and support system must tolerate the magnetic field in the subsystem location.
08/05/2025
Approved
FALSE

DET-ANC-LOWQ2 : Low Q2 Detectors (WBS 6.10.11)

G-DET-ANC-LOWQ2.1
6.10.11
The Low-Q² detectors will measure the momentum of scattered electrons with Q² below 0.1 GeV² in the far-backward region.
05/16/2025
Approved
FALSE

F-DET-ANC-LOWQ2.1
6.10.11
The acceptance for the low-Q² tagger should complement the central detector to reach the coverage close to the limits given by the divergence of the beam and beamline magnets.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.4
6.10.11
Low- Q² trackers shall provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.1
6.10.11
Low-Q2 will have one or more tagger stations to cover the maximum momentum acceptance
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.5
6.10.11
Low-Q² trackers will have Q² acceptance between 0 and 0.1 GeV²
05/16/2025
Approved
FALSE

F-DET-ANC-LOWQ2.3
6.10.11
To measure the momentum of the scattered electron the Low-Q² tagger will include a tracker.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.2
6.10.11
Each Low-Q2 station will have up to 4 silicon tracking layers
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.3
6.10.11
The Low-Q2 tracking system shall have a spatial resolution providing a momentum resolution < 5%.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.4
6.10.11
Low- Q² trackers shall provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.12
6.10.11
Low- Q² tagger 1 calorimeter will have dimensions at least 18 cm in X and 18 cm in Y [TBD]
08/05/2025
Approved
FALSE

P-DET-ANC-LOWQ2.5
6.10.11
Low-Q² trackers will have Q² acceptance between 0 and 0.1 GeV²
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.13
6.10.11
Low- Q² tagger 2 calorimeter will have dimensions at least 18cm in X and 18cm in Y [TBD]
08/05/2025
Approved
FALSE

F-DET-ANC-LOWQ2.2
6.10.11
To measure the energy of the scattered electrons the Low-Q² tagger will include a calorimeter.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.11
6.10.11
Low-Q2 calorimeter energy resolution for electrons shall be s(E)/E < 10%/sqrt(E) + 3%.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.2
6.10.11
Each Low-Q2 station will have up to 4 silicon tracking layers
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.14
6.10.11
The Low-Q2 detectors must handle a data rate and operate reliably at a full projected EIC luminosity.
05/16/2025
Approved
FALSE

F-DET-ANC-LOWQ2.4
6.10.11
Low-Q² tagger will be positioned next to the outgoing electron beampipe, between the B2eR dipole and Q3eR quadrupole.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.1
6.10.11
Low-Q2 will have one or more tagger stations to cover the maximum momentum acceptance
05/16/2025
Approved
FALSE

DET-ANC-LOWQ2 EXTERNALS
Requirements who's parents are in other sub-systems.

F-DET-ANC-LOWQ2.5
6.10.11
LowQ2 system must operate at a full projected EIC luminosity
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.6
6.10.11
Low- Q² tagger will be able to measure the momentum of more than 10 electrons per bunch crossing.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.14
6.10.11
The Low-Q2 detectors must handle a data rate and operate reliably at a full projected EIC luminosity.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.9
6.10.11
The position of the Low-Q² tracker should be removable and adjustable to accommodate different running conditions.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.16
6.10.11
The performance of the Low-Q2 detector will be dependent on the characteristics of the electron beam pipe exit window.
05/16/2025
Approved
FALSE

F-DET-ANC-LOWQ2.6
6.10.11
LowQ2 system must be resistant to extreme background conditions (synchrotron radiation, bremsstrahlung events and slow neutrons in particular) at the levels specified by the simulation studies
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.15
6.10.11
The Low-Q2 detector must be protected from magnetic interference.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.7
6.10.11
The Low-Q² system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-LOWQ2.8
6.10.11
The Low-Q² system shall provide power supplies for bias and low voltages.
05/16/2025
Approved
FALSE

DET-ANC-LUMI : Luminosity Detectors (WBS 6.10.11)

G-DET-ANC-LUMI.1
6.10.11
The luminosity system utilizes the bremsstrahlung process to provide measurements of the absolute luminosity to a precision of δL/L<= 1% and relative luminosity at 10^-4.
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.2
6.10.11
The PS must measure the energy and position of e+e- pairs from bremsstrahlung conversions. The direct photon CAL must measure the energy of the large bremsstrahlung flux while mitigating the high rates of background synchrotron radiation.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.1
6.10.11
The PS CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E) .
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.2
6.10.11
The PS CALs, direct CAL, and trackers shall all provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.3
6.10.11
The PS CAL dimensions shall be 18 [cm] in X , 18 [cm] in Y, and 18 [cm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.4
6.10.11
The PS CAL readout granularity shall be 3 [mm] in X, 3 [mm] in Y, and 3 [mm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.5
6.10.11
The PS tracker dimensions shall cover the transverse face of the calorimeter with no acceptance gaps.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.7
6.10.11
The direct photon CAL dimensions is expected to be similar to the PS CAL
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.6
6.10.11
The direct photon CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E).
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.8
6.10.11
The direct photon CAL readout granularity is expecte to be more course grained than the PS CAL
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.1
6.10.11
The luminosity detectors shall be composed of a Pair Spectrometer (PS) with 2 stations (above and below zero degree line) with tracking layers in front, and a direct photon CAL along the zero degree line.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.1
6.10.11
The PS CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E) .
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.2
6.10.11
The PS CALs, direct CAL, and trackers shall all provide timing resolution sufficient to resolve 10ns beam buckets
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.3
6.10.11
The PS CAL dimensions shall be 18 [cm] in X , 18 [cm] in Y, and 18 [cm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.4
6.10.11
The PS CAL readout granularity shall be 3 [mm] in X, 3 [mm] in Y, and 3 [mm] in Z
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.5
6.10.11
The PS tracker dimensions shall cover the transverse face of the calorimeter with no acceptance gaps.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.7
6.10.11
The direct photon CAL dimensions is expected to be similar to the PS CAL
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.6
6.10.11
The direct photon CAL energy resolution for electrons shall be s(E)/E < 15%/sqrt(E).
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.8
6.10.11
The direct photon CAL readout granularity is expecte to be more course grained than the PS CAL
05/16/2025
Approved
FALSE

F-DET-ANC-LUMI.3
6.10.11
Must be resistant to extreme background conditions, magnetic interference and radiation.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.9
6.10.11
Some components of the luminosity detector and its electronics must be protected from magnetic interference and radiation.
05/16/2025
Approved
FALSE

P-DET-ANC-LUMI.10
6.10.11
The two luminosity detector dipoles must be connected by a beamline that is under vacuum.
05/16/2025
Approved
FALSE

DET-ANC-OFFMO : Off-Momentum Detectors (WBS 6.10.11)

G-DET-ANC-OFFMO.1
6.10.11
The Off-Momentum detectors should provide measurements of charged particles with different magnetic rigidity
05/16/2025
Approved
FALSE

F-DET-ANC-OFFMO.2
6.10.11
Silicon detector with sufficient timing and spatial resolution will provide tracking measurements of the charged particles in the hadron-outgoing direction.
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.6
6.10.11
The OFFM tracking system shall provide a low material budget: < 5% X0.
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.7
6.10.11
OFFM tracker shall provide pT resolution of <10% for pT > 1 GeV/c.
08/05/2025
Approved
FALSE

F-DET-ANC-OFFMO.3
6.10.11
Must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.10
6.10.11
OFFM should tolerate radiation close up to peak 1x 10^8 neutron fluence / fb -1 [TBD]
08/05/2025
Approved
FALSE

P-DET-ANC-OFFMO.11
6.10.11
Must handle data rate and operate reliably at full projected EIC luminosity (<1MHz)
08/05/2025
Approved
FALSE

DET-ANC-OFFMO EXTERNALS
Requirements who's parents are in other sub-systems.

F-DET-ANC-OFFMO.1
6.10.11
OMD will be integrated into the accelerator vacuum system.
08/06/2025
Approved
FALSE

P-DET-ANC-OFFMO.1
6.10.11
OFFM tracker shall have granularity of 500um (pixels) with charge-sharing to achieve spatial resolution < 20um per hit.
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.2
6.10.11
OFFM will have 2 layers per station
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.3
6.10.11
OFFM will have 2 stations , separated by 2m
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.4
6.10.11
OFFM system dimensions will be 10[cm] in X and 20 [cm] in Y (to be determined)
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.8
6.10.11
The OMDs need cooling of ~60 Watts per active layer,
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.5
6.10.11
OFFM tracker will have timing resolution X<35ps
05/16/2025
Approved
FALSE

P-DET-ANC-OFFMO.9
6.10.11
OMD layers should be movable in X and Y and extractable to the home position during the injection with a prediction of … [TBD]
08/05/2025
Approved
FALSE

DET-ANC-ROMAN : Roman Pots (WBS 6.10.11)

G-DET-ANC-ROMAN.1
6.10.11
The Roman-Pots should provide measurements of charged particles close to the beam core.
05/16/2025
Approved
FALSE

F-DET-ANC-ROMAN.3
6.10.11
RPOT will provide good t-measurements of far-forward charged particles.
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.1
6.10.11
RPOT tracker will have granularity of 500um (pixels) with charge-sharing to achieve spatial resolution < 140um per hit.
08/05/2025
Approved
FALSE

P-DET-ANC-ROMAN.6
6.10.11
The RPOT tracking system shall provide a low material budget: < 5% X0.
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.5
6.10.11
RPOT tracker will have timing resolution < 35 ps
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.7
6.10.11
RPOT tracker shall provide momentum resolution < 5% and pT resolution of 5% for pT > 500 MeV/c.
05/16/2025
Approved
FALSE

F-DET-ANC-ROMAN.1
6.10.11
The Roman-Pots will provide coverage in the range 0.0* < θ < 5.0 mrad (ƞ > 6) (*depends on beam optics, ca 10 sigma)
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.3
6.10.11
RPOT will have 2 stations , separated by 2m
08/05/2025
Approved
FALSE

P-DET-ANC-ROMAN.2
6.10.11
RPOT will have 2 layers per each station
08/05/2025
Approved
FALSE

P-DET-ANC-ROMAN.4
6.10.11
RPOT system dimensions will have 26 [cm] in X and 13 [cm] in Y (to be determined)
05/16/2025
Approved
FALSE

F-DET-ANC-ROMAN.4
6.10.11
Must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.10
6.10.11
RPOT should tolerate radiation close up to peak 5x 10^7 neutron fluence / fb -1
08/05/2025
Approved
FALSE

P-DET-ANC-ROMAN.11
6.10.11
Must handle a data rate and operate reliably at a full projected EIC luminosity (<1MHz)
08/05/2025
Approved
FALSE

DET-ANC-ROMAN EXTERNALS
Requirements who's parents are in other sub-systems.

F-DET-ANC-ROMAN.2
6.10.11
RPOT will be integrated into the accelerator vacuum system.
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.8
6.10.11
The RPOTs need cooling of ~100 Watts per active layer,
05/16/2025
Approved
FALSE

P-DET-ANC-ROMAN.9
6.10.11
RPOT layers should be movable in X and Y and extractable to the home position during the injection with a prediction of … [TBD]
08/05/2025
Approved
FALSE

DET-ANC-ZDC : Zero Degree Calorimeter (WBS 6.10.11)

G-DET-ANC-ZDC.1
6.10.11
The Zero Degree Calorimeter should provide measurements of neutral particles (neutrons and photons).
05/16/2025
Approved
FALSE

F-DET-ANC-ZDC.1
6.10.11
ZDC will provide theta coverage in the range 0 < θ < 4 mrad (aperture limit, symmetric in phi).
08/05/2025
Approved
FALSE

P-DET-ANC-ZDC.2
6.10.11
ZDC system active area will have dimensions 60 [cm] in X and 60 [cm] in Y and <200 [cm] in Z
08/05/2025
Approved
FALSE

F-DET-ANC-ZDC.2
6.10.11
ZDC will provide good PT ( or t) -measurements of far-forward neutral particles (photons and neutrons )
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.1
6.10.11
The ZDC will have at least two sections: electromagnetic (EMCAL) and hadronic pars (HCAL)
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.6
6.10.11
ZDC shall have granularity : EMCAL crystal 2cmx2cm towers Angular resolution 3mrad/ sqrt(E)
08/05/2025
Approved
FALSE

F-DET-ANC-ZDC.5
6.10.11
The ZDC EMCAL calorimeter hall provide photon measurements down to 100 MeV.
05/16/2025
Approved
FALSE

F-DET-ANC-ZDC.3
6.10.11
ZDC will provide good identification and energy measurements of far-forward neutral particles (photons and neutrons )
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.3
6.10.11
Energy resolution for photons shall be s(E)/E < 20%/sqrt(E) + 5%, and measure energy of photons down to 100 MeV.
08/05/2025
Approved
FALSE

P-DET-ANC-ZDC.4
6.10.11
Energy resolution for neutrons shall be s(E)/E < 50%/sqrt(E) + 5%.
05/16/2025
Approved
FALSE

F-DET-ANC-ZDC.7
6.10.11
ZDC should provide a VETO for the charged particles
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.11
6.10.11
ZDC should have two layers of SiPM-on-Tile scintillators boards in front of the calorimeter(s) for charged particle veto.
08/05/2025
Approved
FALSE

G-DET-ANC-ZDC.3
6.10
The Zero Degree Calorimeter should provide measurements of neutral particles (neutrons and photons).
05/16/2025
In Process
FALSE

DET-ANC-ZDC EXTERNALS
Requirements who's parents are in other sub-systems.

F-DET-ANC-ZDC.4
6.10.11
Must be resistant to extreme background conditions, high neutron flux in particular, at the levels specified by the simulation studies.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.5
6.10.11
Must handle a data rate and operate reliably at a full projected EIC luminosity and background (<1MHz)
08/05/2025
Approved
FALSE

P-DET-ANC-ZDC.9
6.10.11
ZDC should tolerate radiation close up to peak 3.5 x 10^9 neutron fluence / fb -1
08/05/2025
Approved
FALSE

P-DET-ANC-ZDC.10
6.10.11
Ability to identify bunch crossing (Timing < 10ns)
08/05/2025
Approved
FALSE

F-DET-ANC-ZDC.6
6.10.11
Must be compact enough to fit in the limited space allocated in the accelerator tunnel
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.2
6.10.11
ZDC system active area will have dimensions 60 [cm] in X and 60 [cm] in Y and <200 [cm] in Z
08/05/2025
Approved
FALSE

P-DET-ANC-ZDC.7
6.10.11
The ZDC system shall provide cooling (air/liquid) for silicon sensors.
05/16/2025
Approved
FALSE

P-DET-ANC-ZDC.8
6.10.11
The ZDC system shall provide power supplies for bias, HV and low voltages.
05/16/2025
Approved
FALSE

DET-POL : Polarimetry and Luminosity (WBS 6.10.14)

G-DET-POL.1
6.10.14
The polarimeters at EIC shall measure the spin polarizations of the colliding beams.
05/16/2025
Approved
FALSE

F-DET-POL.1
6.10.14
The polarimeters must measure the beam polarizations at all flattop energies.
05/16/2025
Approved
FALSE

P-DET-POL.8
6.10.14
The beam polarizations shall be measured to within 1% or less (relative).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.1
6.10.14.01.01
The systematic and statistical uncertainty will be 1% or better.
05/16/2025
Approved
FALSE

P-DET-POL.9
6.10.14
The polarimeters must be able to determine the polarization vector.
05/16/2025
Approved
FALSE

F-DET-POL.2
6.10.14
The beam polarimetry shall happen concurrent to the physics measurement and be non-invasive.
05/16/2025
Approved
FALSE

P-DET-POL.8
6.10.14
The beam polarizations shall be measured to within 1% or less (relative).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.1
6.10.14.01.01
The systematic and statistical uncertainty will be 1% or better.
05/16/2025
Approved
FALSE

P-DET-POL.9
6.10.14
The polarimeters must be able to determine the polarization vector.
05/16/2025
Approved
FALSE

G-DET-POL.2
6.10.14
The polarization lifetime must be measured for each fill of beams or bunches.
05/16/2025
Approved
FALSE

G-DET-POL.3
6.10.14
The polarization must be measured for each bunch of the beams.
05/16/2025
Approved
FALSE

G-DET-POL.4
6.10.14
The polarimeters will be functionally integrated with the other detectors, with the interaction region components, and with the facility infrastructure.
05/16/2025
Approved
FALSE

F-DET-POL.3
6.10.14
The polarimeters will require adequate infrastructure resources (i.e. power, cooling, cryogens, etc.) to ensure it can function reliably during continous operations.
05/16/2025
Approved
FALSE

P-DET-POL.3
6.10.14
The polarimeters and their control rooms will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-POL.4
6.10.14
The polarimeters and their control rooms will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-POL.6
6.10.14
The laser labs, control rooms and access paths must be shielded to allow personnel access during beam/laser operations.
05/16/2025
Approved
FALSE

P-DET-POL.5
6.10.14
The polarimeters and their control rooms will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-POL.7
6.10.14
The laser labs, control rooms, and equipment must have interlocks where required for personnel safety.
05/16/2025
Approved
FALSE

F-DET-POL.5
6.10.14
The polarimeters and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-POL.1
6.10.14
The polarimeters, their control rooms and support system must fit within the constraints of the surrounding systems, be properly located relative to other systems, and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-POL.2
6.10.14
The polarimeters will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-POL.3
6.10.14
The polarimeters and their control rooms will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-POL.4
6.10.14
The polarimeters and their control rooms will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-POL.6
6.10.14
The laser labs, control rooms and access paths must be shielded to allow personnel access during beam/laser operations.
05/16/2025
Approved
FALSE

P-DET-POL.5
6.10.14
The polarimeters and their control rooms will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-POL.7
6.10.14
The laser labs, control rooms, and equipment must have interlocks where required for personnel safety.
05/16/2025
Approved
FALSE

F-DET-POL.4
6.10.14
The configuration of the polarimeters within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-POL.1
6.10.14
The polarimeters, their control rooms and support system must fit within the constraints of the surrounding systems, be properly located relative to other systems, and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-POL.6
6.10.14
A structural support infrastructure must be provided that supports the weight of the polarimeters and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-POL.2
6.10.14
The polarimeters will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

G-DET-POL.5
6.10.14
The polarimeters must fit within the available space in the experimental hall, and be consistent with the available infrastructure and resources.
05/16/2025
Approved
FALSE

F-DET-POL.5
6.10.14
The polarimeters and its support systems must fit in the available space AND provide adequate plenums and pathways for the delivery of services, resources and communications, and for the removal of heat and waste during operations.
05/16/2025
Approved
FALSE

P-DET-POL.1
6.10.14
The polarimeters, their control rooms and support system must fit within the constraints of the surrounding systems, be properly located relative to other systems, and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

P-DET-POL.2
6.10.14
The polarimeters will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

P-DET-POL.3
6.10.14
The polarimeters and their control rooms will require cooling infrastructure that is sufficient to ensure the operating temperature remains within an acceptable range.
05/16/2025
Approved
FALSE

P-DET-POL.4
6.10.14
The polarimeters and their control rooms will require electrical power to support the operation of the detector sub-components and electronics.
05/16/2025
Approved
FALSE

P-DET-POL.6
6.10.14
The laser labs, control rooms and access paths must be shielded to allow personnel access during beam/laser operations.
05/16/2025
Approved
FALSE

P-DET-POL.5
6.10.14
The polarimeters and their control rooms will require communications infrastructure to support data collection, monitoring and control.
05/16/2025
Approved
FALSE

P-DET-POL.7
6.10.14
The laser labs, control rooms, and equipment must have interlocks where required for personnel safety.
05/16/2025
Approved
FALSE

F-DET-POL.4
6.10.14
The configuration of the polarimeters within the detector will be coordinated to ensure efficient operation and to minimize adverse interactions between sub-systems.
05/16/2025
Approved
FALSE

P-DET-POL.1
6.10.14
The polarimeters, their control rooms and support system must fit within the constraints of the surrounding systems, be properly located relative to other systems, and have adequate space for the delivery of services and the removal of waste.
05/16/2025
Approved
FALSE

F-DET-POL.6
6.10.14
A structural support infrastructure must be provided that supports the weight of the polarimeters and peripheral equipment, and safely distributes that load to the ground.
05/16/2025
Approved
FALSE

P-DET-POL.2
6.10.14
The polarimeters will require a structural support system to carry the cumulative weight of the detectors and peripheral services, and to distribute that load to other supporting infrastructure or to the floor, and will require survey marks to determine their physical location.
05/16/2025
Approved
FALSE

DET-POL-EPOL : Electron Polarimetry (WBS 6.10.14.01)

DET-POL-EPOL-ESR : Electron Storage Ring Polarimetry (WBS 6.10.14.01)

G-DET-POL-EPOL-ESR.1
6.10.14.01.01
The ESR Compton shall measure the electron polarization in the electron storage ring.
05/16/2025
Approved
FALSE

F-DET-POL-EPOL-ESR.1
6.10.14.01.01
A strip detector will be used to detect scattered electrons from (at least) asymmetry zero crossing to kinematic endpoint.
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.7
6.10.14.01.01
The electron detector shall cover at least 6 cm (horizontal) (to be verified).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.6
6.10.14.01.01
The time response of all detectors (electron and photon) will be sufficient to resolve beam bunch (<10 ns).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.8
6.10.14.01.01
The electron strip detector pitch shall be 400 um or smaller (to be verified).
05/16/2025
Approved
FALSE

F-DET-POL-EPOL-ESR.2
6.10.14.01.01
A Roman pot will be required to protect electron detector from beam Wakefield.
05/16/2025
Approved
FALSE

F-DET-POL-EPOL-ESR.3
6.10.14.01.01
The strip detector shall be used to detect back-scattered photons with sufficient resolution measure the spatial asymmetry.
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.7
6.10.14.01.01
The electron detector shall cover at least 6 cm (horizontal) (to be verified).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.6
6.10.14.01.01
The time response of all detectors (electron and photon) will be sufficient to resolve beam bunch (<10 ns).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.8
6.10.14.01.01
The electron strip detector pitch shall be 400 um or smaller (to be verified).
05/16/2025
Approved
FALSE

F-DET-POL-EPOL-ESR.5
6.10.14.01.01
The photon detector system will be at least 20 to 25 meters from the Compton IP (to be verified).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.9
6.10.14.01.01
The photon calorimeter and strip detector will cover at least 4 x 4 cm² (to be verified).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.6
6.10.14.01.01
The time response of all detectors (electron and photon) will be sufficient to resolve beam bunch (<10 ns).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.10
6.10.14.01.01
The photon detector strip detector pitch shall be ~100 um (to be verified).
05/16/2025
Approved
FALSE

F-DET-POL-EPOL-ESR.4
6.10.14.01.01
A calorimeter will be used to measure backscattered photon energy.
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.9
6.10.14.01.01
The photon calorimeter and strip detector will cover at least 4 x 4 cm² (to be verified).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.6
6.10.14.01.01
The time response of all detectors (electron and photon) will be sufficient to resolve beam bunch (<10 ns).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.10
6.10.14.01.01
The photon detector strip detector pitch shall be ~100 um (to be verified).
05/16/2025
Approved
FALSE

F-DET-POL-EPOL-ESR.6
6.10.14.01.01
The electron polarization measurement shall be completed in a context appropriate time frame.
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.4
6.10.14.01.01
The laser repetition rate shall match the beam frequency (25-100 MHz) and will have the capability of achieving a ~75 kHz pulse rate.
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.2
6.10.14.01.01
The measurement time shall be less than the bunch lifetime in the ring (~2 minutes).
05/16/2025
Approved
FALSE

P-DET-POL-EPOL-ESR.6
6.10.14.01.01
The time response of all detectors (electron and photon) will be sufficient to resolve beam bunch (<10 ns).
05/16/2025
Approved
FALSE

DET-POL-EPOL-ESR EXTERNALS
Requirements who's parents are in other sub-systems.

P-DET-POL-EPOL-ESR.1
6.10.14.01.01
The systematic and statistical uncertainty will be 1% or better.
05/16/2025
Approved
FALSE

DET-POL-EPOL-RCS : Rapid Cycling Synchrotron Polarimetry (WBS 6.10.14.01)

DET-POL-HPOL : Hadron Polarimetry (WBS 6.10.14.02)

DET-POL-HPOL-HJET : HJET Polarimetery (WBS 6.10.14.02)

G-DET-POL-HPOL-HJET.1
6.10.14.02.01
The HJET polarimeter shall measure the absolute beam polarization for light hadron beams.
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-HJET.1
6.10.14.02.01
The HJET polarimeter shall measure the polarization throughout a whole hadron store (about 8 hours).
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-HJET.1
6.10.14.02.01
The relative uncertainty of the beam polarization measurement must be 1% or less.
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-HJET.2
6.10.14.02.01
Silicon detectors must be located to the left and right of the beam direction (in the accelerator plane).
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-HJET.3
6.10.14.02.01
The atomic target shall be polarized through a set of hyperfine transitions and the target polarization shall be monitored in a Breit-Rabi unit.
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-HJET.5
6.10.14.02.01
A Zero Degree Calorimeter shall be located downstream of the HJET (separated by a 10-12 Tm dipole magnet).
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-HJET.4
6.10.14.02.01
The unpolarized molecular fraction of the target shall be continuously monitored with a beam gas analyzer.
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-HJET.6
6.10.14.02.01
The HJET polarimeter will require adequate resources to successfully operate.
10/23/2025
Approved
FALSE

P-DET-POL-HPOL-HJET.3
6.10.14.02.01
The HJET polarimeter will require space and infrastructure to support data collection and monitoring.
10/23/2025
Approved
FALSE

P-DET-POL-HPOL-HJET.2
6.10.14.02.01
The HJET polarimeter will require infrastructure to support the operation and communications for its control systems.
10/23/2025
Approved
FALSE

P-DET-POL-HPOL-HJET.4
6.10.14.02.01
The HJET polarimeter will require cable pathways and conduits adequate to control, collect data, and monitor.
10/23/2025
Approved
FALSE

DET-POL-HPOL-PC : Proton-Carbon Polarimeter (WBS 6.10.14.02)

G-DET-POL-HPOL-pC.1
6.10
The pC polarimeter shall measure the relative polarization loss at flattop energy during a store and the transverse polarization profile of the hadron bunches.
05/16/2025
In Process
FALSE

F-DET-POL-HPOL-PC.2
6.10.14.02.02
The pC polarimeters shall be equipped with ultra-thin fiber targets which scan the beam profile horizontally and vertically.
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-PC.4
6.10.14.02.02
The bias current of the detectors shall be constantly monitored.
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-PC.3
6.10.14.02.02
The pC polarimeter target stations shall carry enough fiber targets to last throughout a year of EIC operations.
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-PC.1
6.10.14.02.02
The pC devices shall measure the relative beam polarization within 30 seconds with an uncertainty of 2% or less.
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-PC.3
6.10.14.02.02
The pC polarimeter shall be able to measure the bunch-by-bunch polarization for each hadron beam fill.
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-PC.2
6.10.14.02.02
The target fibers shall be thin enough to provide a measurement of the transverse polarization profile of the beam bunches.
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-PC.4
6.10.14.02.02
Vacuum separation will be required to access and replacement targets during maintenance.
05/16/2025
Approved
FALSE

F-DET-POL-HPOL-PC.5
6.10.14.02.02
The pC polarimeter will require adequate resources to successfully operate.
10/23/2025
Approved
FALSE

P-DET-POL-HPOL-PC.5
6.10.14.02.02
The pC polarimeter will require infrastructure to support the operation and communications for its control systems.
10/23/2025
Approved
FALSE

P-DET-POL-HPOL-PC.6
6.10.14.02.02
The pC polarimeter will require space and infrastructure to support data collection and monitoring.
10/23/2025
Approved
FALSE

G-DET-POL-HPOL-pC.2
6.10
The pC polarimeter near the experimental IR shall measure the orientation of the polarization vector (local polarimetry).
05/16/2025
In Process
FALSE

F-DET-POL-HPOL-PC.1
6.10.14.02.02
Six silicon detectors must be located to the left and right of the beam and under 45 degrees with respect to the accelerator plane.
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-PC.3
6.10.14.02.02
The pC polarimeter shall be able to measure the bunch-by-bunch polarization for each hadron beam fill.
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-PC.1
6.10.14.02.02
The pC devices shall measure the relative beam polarization within 30 seconds with an uncertainty of 2% or less.
05/16/2025
Approved
FALSE

P-DET-POL-HPOL-PC.4
6.10.14.02.02
Vacuum separation will be required to access and replacement targets during maintenance.
05/16/2025
Approved
FALSE