EIC Requirements
Electron Ion Collider
Global EIC System Requirements
Global requirements associated with the Electron Ion Collider.
- NameWBSDescriptionUpdatedStatusTBD
GBL
GBL-BACKGRDS
- 6.0Backgrounds in the detector system must be kept to a very low level to extract the signals of interest02/05/2025In ProcessFALSE
- 6.0The central and far-forward detectors must be integrated into the accelerator and IR lattice, including the vacuum, controls, and beam protection systems, in such a way as to minimize backgrounds from scattered particles, such as beam-gas02/05/2025In ProcessFALSE
- 6.0The detectors must be well protected against background created by the beam. This implies that there must not be particle background from the electron and hadron beams hitting the interaction region vacuum walls. Unavoidable lost particles02/05/2025In ProcessFALSE
- 6.0Residual pressure levels must remain within limits defined by the background level which can be accepted by the detector.02/05/2025In ProcessFALSE
GBL-BEAMPOL
- 6.0Polarization is required for (i) double-spin asymmetries, requiring both electron and hadron beams to be polarized, and (ii) single-spin asymmetries, requiring only the electron or hadron beam to02/05/2025In ProcessFALSE
- 6.0High beam polarizations, ≥70%, are mandatory to reduce the statistical uncertainties.02/05/2025In ProcessFALSE
- 6.0Electron- and proton beams as well as light ion beams such as He-3 need to be spin polarized accordingly in collisions with a polarization degree of 70% on average (over time).02/05/2025In ProcessFALSE
- 6.0The accelerator chain and the injection systems for electron must be able to provide beams with sufficiently high polarization at a sufficiently high injection frequency to maintain high electron polarization.02/05/2025In ProcessFALSE
- 6.0The polarization direction in collisions needs to be adjustable in the longitudinal direction and the transverse direction with respect to the hadron beam direction02/05/2025In ProcessFALSE
- 6.0The polarization direction in collisions needs to be adjustable in the longitudinal direction for the electron beam.02/05/2025In ProcessFALSE
- 6.0The polarimeters are required to be able to measure the beam polarization on a bunch-by bunch level.02/05/2025In ProcessFALSE
GBL-BUNCHPARAMS
- 6.0Good Control of luminosity and polarization is essential for the EIC. The EIC measurements require that the instantaneous luminosity L be measurable to 1%.02/05/2025In ProcessFALSE
- 6.0The precision of double spin asymmetries is dependent on the relative luminosity measurement R = (L++/--)/(L+-/-+), which shall be determined with an accuracy <10-4.02/05/2025In ProcessFALSE
- 6.0The collider shall be constructed and operated such that bunch polarization and polarization orientation in the interaction point can be measured for each electron and proton bunch,02/05/2025In ProcessFALSE
- 6.0The collider shall be constructed and operated such that luminosity per bunch crossing and relative luminosity for the spin different spin direction combinations (++, --, +- and -+)02/05/2025In ProcessFALSE
GBL-CENMASSENG
- 6.0The EIC must cover a large range of center of mass energy's. The collider shall be designed for center of mass energies in the range of 29 GeV to 140 GeV (electrons and protons)02/05/2025In ProcessFALSE
- 6.0The corresponding requirement for the maximum proton beam energy is 275 GeV and for maximum electron energy is 18 GeV.02/05/2025In ProcessFALSE
- 6.0The corresponding crequirment for minimum proton beam energy is 41 GeV and for minimum electron energy is 5 GeV.02/05/2025In ProcessFALSE
- 6.0The center of mass energy range for Electron-Ion collisions shall be (in case of electron gold collisions, a representative case) 29 GeV to 89 GeV (collisions of electrons with gold ions).02/05/2025In ProcessFALSE
- 6.0The corresponding requirment for Au ion energies are 110 GeV/nucleon and 41 GeV per nucleon.02/05/2025In ProcessFALSE
- 6.0The electron storage ring must be designed such that the revolution frequency of the electron beam equals the revolution frequency of a 133 GeV proton beam in the hadron storage ring.02/05/2025In ProcessFALSE
- 6.0For low energy hadron operations, the hadron storage ring lattice must include an option of a bypass such that the path length for protons with an energy of 41 GeV - or any ion species with02/05/2025In ProcessFALSE
GBL-DETACCEPT
- 6.0the 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 the02/05/2025In ProcessFALSE
- 6.0the detector must be ÒhermeticÓ, with an acceptance that includes all angles, up to those of particles scattered within a few milliradians of the colliding beam directions.02/05/2025In ProcessFALSE
- 6.0The 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.02/05/2025In ProcessFALSE
- 6.0For 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.02/05/2025In ProcessFALSE
- 6.0The 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 nuclei02/05/2025In ProcessFALSE
- 6.0Polarized beams require the implementation of electron, proton, and light-ion polarimetry.02/05/2025In ProcessFALSE
- 6.0The EIC detector will have to cope with collision rates up to ~500 kHz at full luminosity.02/05/2025In ProcessFALSE
GBL-EFFICIENCY_REDUNDANCY
- 6.0The facility shall be planned and designed preferably with standardized components that can be used in several hardware systems of the collider.02/05/2025In ProcessFALSE
- 6.0Multipurpose components shall be used wherever they are not compromising performance, cost or schedule.02/05/2025In ProcessFALSE
- 6.0To minimize performance risks, commissioning and collider maturing periods and to reduce initial trouble shooting efforts, existing and proven technology shall be used wherever possible.02/05/2025In ProcessFALSE
- 6.0Use of new technology must be motivated by substantial increase in performance, tolerances, service friendliness, maintainability, manufacturability, availability on the market, cost, and schedule and reasonable research and development effort.02/05/2025In ProcessFALSE
GBL-ENVIRON
- 6.0Ecologically and environmentally sensitive areas such as the Peconic River that crosses the EIC facility must not be affected by EIC construction activities.02/05/2025In ProcessFALSE
- 6.0Precautions 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 9.1.12.02/05/2025In ProcessFALSE
- 6.0The inefficient use of electrical power shall be avoided by appropriate energy conscientious design.02/05/2025In ProcessFALSE
- 6.0Precautions 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.02/05/2025In ProcessFALSE
- 6.0In addition, DOE buildings are subject to the requirements for efficiency and sustainability in DOE O 436.1, Departmental Sustainability.02/05/2025In ProcessFALSE
- 6.0In 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 102102/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Compliance with Floodplain/Wetlands Environmental Review Requirements, 10 CFR 102202/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Endangered Species Act (Title 16 - Conservation: Chapter 35-Endangered Species, 16 USC 153102/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Historic Sites Act of 1935, 16 USC 461-46702/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Archaeological and Historic Preservation Act, 16 USC 46902/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the National Historic Preservation Act, 16 USC 47002/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Archaeological Resources Protection Act of 1979, 16 USC 470aa-470ll02/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Migratory Bird Treaty Act, 16 USC 703-71202/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Protection of Historic Resources, 36 CFR 80002/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Protection of Environment /Protection of Stratospheric Ozone, 40 CFR 8202/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Resource Conservation and Recovery Act (RCRA), 40 CFR 239 Ð 28202/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the National Environmental Policy Act of 1969, et seq., as amended, 42 USC 4321-434702/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Trees and Plants/Protected Native Plants, 6 NYCRR 193.302/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Environmental Remediation Programs, 6 NYCRR 37502/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Article 15, Title 5 - Protection of Waters, 6 NYCRR 60802/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Article 24 - Freshwater Wetlands, 6 NYCRR 662 & 66302/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Article 15, Title 27 - Wild, Scenic, Recreational River Systems Act, 6 NYCRR 66602/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the New York State Environmental Quality Review Act, 8 NYCRR Part 10102/05/2025In ProcessFALSE
- 6.0In 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 302.602/05/2025In ProcessFALSE
- 6.0In 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 17202/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Solid Wastes, 6 NYCRR 360-364.902/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Hazardous Waste Management System: General, 6 NYCRR 37002/05/2025In ProcessFALSE
- 6.0In order to minimize the impact of the EIC on the Identification and Listing of Hazardous Wastes, 6 NYCRR 37102/05/2025In ProcessFALSE
- 6.0In 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 37402/05/2025In ProcessFALSE
- 6.0In 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 374-202/05/2025In ProcessFALSE
- 6.0New York State Department of Health, State Sanitary Code, Drinking Water Supplies, 10 NYCRR 502/05/2025In ProcessFALSE
- 6.0The Bald and Golden Eagle Protection Act., 16 USC 668 a-d02/05/2025In ProcessFALSE
- 6.0Discharge of Oil, 40 CFR 110.602/05/2025In ProcessFALSE
- 6.0Protection of Environment/Oil Pollution Prevention, 40 CFR 11202/05/2025In ProcessFALSE
- 6.0Code of Federal Regulations, National Pollutant Discharge Elimination System, 40 CFR 122-131, 13302/05/2025In ProcessFALSE
- 6.0National Primary and Secondary Drinking Water Standards, 40 CFR 141-14302/05/2025In ProcessFALSE
- 6.0Underground Injection Control, 40 CFR 144 - 14802/05/2025In ProcessFALSE
- 6.0November 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 1500-150802/05/2025In ProcessFALSE
- 6.0Resource Conservation and Recovery Act/Standards Applicable to Generators of Hazardous Waste, 40 CFR 262 & 264-26502/05/2025In ProcessFALSE
- 6.0Standards for the Management of Used Oil, 40 CFR 27902/05/2025In ProcessFALSE
- 6.0Protection of the Environment/National Oil and Hazardous Substances Pollution Contingency Plan, 40 CFR 30002/05/2025In ProcessFALSE
- 6.0Standards of Performance for New Stationary Sources (NSPS), 40 CFR 60 - Subpart A02/05/2025In ProcessFALSE
- 6.0Standards of Performance for Stationary Compression Ignition Internal Combustion Engine, 40 CFR 60 Subpart IIII (as amended June 28, 2011)02/05/2025In ProcessFALSE
- 6.0National Emissions Standards for Hazardous Air Pollutants (NESHAPs)- General Provisions, 40 CFR 61 - Subpart A02/05/2025In ProcessFALSE
- 6.0National 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 H02/05/2025In ProcessFALSE
- 6.0Mandatory Greenhouse Gas Reporting, 40 CFR 9802/05/2025In ProcessFALSE
- 6.0USC 1996. July 1983, "CEQ Regulations for Implementing the Procedural Provisions of the National Environmental Policy Act," Council on Environmental Quality, Federal Register, 48 FR 3426302/05/2025In ProcessFALSE
- 6.0Endanger 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]02/05/2025In ProcessFALSE
- 6.0New York State Department of Environmental Conservation/Prevention and Control of Air contamination and Air Pollution, 6 NYCRR 200 - 23402/05/2025In ProcessFALSE
- 6.0New York State Department of Environmental Conservation, "Hazardous Substance Bulk Storage Regulations,", 6 NYCRR 595-59902/05/2025In ProcessFALSE
- 6.0New York State Department of Environmental Conservation, Storage and Handling of Petroleum/Petroleum Clean-up and Removal, 6 NYCRR 611 and 61302/05/2025In ProcessFALSE
- 6.0State Pollutant Discharge Elimination System (SPDES) Permits, 6 NYCRR 75002/05/2025In ProcessFALSE
- 6.0Sustainable Acquisition Program (Oct 2010)(SC Alternate 1)(Sep 2018), BSA Contract No. DE-SC0012704 - Clause I.134 (DEAR 970.5223-7)02/05/2025In ProcessFALSE
- 6.0Pollution Prevention And Right-to-know Information (May 2011) ( Alternate I), BSA Contract No. DE-SC0012704 - Clause I.52 Ñ FAR 52.223-502/05/2025In ProcessFALSE
- 6.0Estimate Of Percentage Of Recovered Material Content For EPA Designated Items (May 2008), BSA Contract No. DE-SC0012704 - Clause I.54 Ñ FAR 52.223-902/05/2025In ProcessFALSE
- 6.0Ozone-Depleting Substances and High Global Warming Potential Hydrofluorocarbons (Jun 2016), BSA Contract No. DE-SC0012704 - Clause I.56 (FAR 52.223-11)02/05/2025In ProcessFALSE
- 6.0Compliance With Environmental Management Systems (May 2011), BSA Contract No. DE-SC0012704 - Clause I.62 Ñ FAR 52.223-1902/05/2025In ProcessFALSE
- 6.0Aerosols (Jun 2016), BSA Contract No. DE-SC0012704 - Clause I.62A - FAR 52.223-2002/05/2025In ProcessFALSE
- 6.0Foams (Jun 2016), BSA Contract No. DE-SC0012704 - Clause I.62B - FAR 52.223-2102/05/2025In ProcessFALSE
- 6.0EO 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)02/05/2025In ProcessFALSE
- 6.0EO 14008: Tackling the Climate Crisis at Home and Abroad, January 27, 202102/05/2025In ProcessFALSE
- 6.0(EO 13693 was revoked by EO 13990, EO 14008, EO 14057, EO 14082)02/05/2025In ProcessFALSE
- 6.0EO 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)02/05/2025In ProcessFALSE
- 6.0EO 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)02/05/2025In ProcessFALSE
- 6.0CRD Ð Radioactive Waste Management, O 435.1 Chg 2 (AdminChg)02/05/2025In ProcessFALSE
- 6.0Departmental Sustainability, O 436.1 (May 2, 2011)02/05/2025In ProcessFALSE
- 6.0Radiation Protection of the Public and the Environment, O 458.1 Chg 4 (LtdChg)9-15-202002/05/2025In ProcessFALSE
- 6.0Toxic and Hazardous Materials Storage and Handling Controls, Suffolk County Sanitary Code - Article 1202/05/2025In ProcessFALSE
GBL-INTEGRAT
- 6.0The EIC shall be designed such as to seamlessly integrate into the existing RHIC systems02/05/2025In ProcessFALSE
- 6.0Duplication of existing functionality and infrastructure previously used for RHIC must be avoided.02/05/2025In ProcessFALSE
- 6.0RHIC components which are becoming part of the EIC shall remain unaltered wherever possible.02/05/2025In ProcessFALSE
- 6.0The Electron-Ion collider rings shall use the existing RHIC tunnel and major changes of the present RHIC accelerator tunnel and the experimental halls must be avoided02/05/2025In ProcessFALSE
- 6.0Present shielding measures of RHIC, in particular the RHIC berm must stay in place and its integrity as a radiation shielding measure must not be compromised.02/05/2025In ProcessFALSE
- 6.0Existing RHIC buildings (service buildings) must be used wherever possible.02/05/2025In ProcessFALSE
- 6.0New accelerator controls systems must be designed such as to interface to the existing or upgraded existing hadron accelerator control system without major additional02/05/2025In ProcessFALSE
- 6.0The EIC hadron ring must be able to accept beam from the AGS via the AtE (former AtR) transfer line.02/05/2025In ProcessFALSE
GBL-IONSPEC
- 6.0The EIC collider shall include the capacity to produce ion beams of a large range in A from protons to uranium.02/05/2025In ProcessFALSE
- 6.0The EIC injector complex must be configured such that polarized deuteron beams can be added with a minimum of additional hardware (such as a polarized deuteron source and deuteron polarimetry).02/05/2025In ProcessFALSE
GBL-LUMI
- 6.0The EIC shall be designed to achieve peak electron-proton luminosities between 1033cm-2s-1 and 1034 cm-2s-1. Comment: With strong hadron cooling (Lpeak = Lavg), 1033 cm-2s-1 yields an integrated luminosity of 1.5 fb-1 per month.02/05/2025In ProcessFALSE
- 6.0The peak electron-proton luminosity of the EIC shall reach values between one and ten times 1033 cm-2 s-1 in the range 29 to 140 GeV of center of mass energies, Lpeak= (1-10) _ 1033 cm-2 s-1 for 29 GeV< Ecm<140 GeV.02/05/2025In ProcessFALSE
- 6.0The design shall aim to maximize the range of center of mass energies where the peak electron-proton luminosity reaches values close to Lpeak=1034 cm-2 s-1.02/05/2025In ProcessFALSE
- 6.0The luminosity averaged between two subsequent injections of hadron beams Lavg shall be close to 90% of the peak luminosity.02/05/2025In ProcessFALSE
- 6.0The collider shall be designed such that these luminosity goals can be achieved within the first five years of operations.02/05/2025In ProcessFALSE
- 6.0Studies of the spatial distributions of quarks and gluons in the proton with polarized beams; Shall require an integrated luminosity of up to 100 fb-102/05/2025In ProcessFALSE
- 6.0The choice of beam species, energies, and spin orientation shall allow multiple measurements simultaneously per operating period.02/05/2025In ProcessFALSE
GBL-OPEREFF
- 6.0The EIC collider design choices must consider high levels of operational efficiency and reliability to maximize the physics outcome.02/05/2025In ProcessFALSE
- 6.0Operating 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.02/05/2025In ProcessFALSE
- 6.0Consistently 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.02/05/2025In ProcessFALSE
- 6.0Minimizing 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.02/05/2025In ProcessFALSE
- 6.0Switching 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)02/05/2025In ProcessFALSE
- 6.0All components need to be removeable/exchangeable without modifications to buildings and access to tunnels and service buildings.02/05/2025In ProcessFALSE
- 6.0Reliability 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.02/05/2025In ProcessFALSE
GBL-SAFETY_BUILDINGS&FIRE
- 6.0The 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)).02/05/2025In ProcessFALSE
- 6.0This 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 2.2.4.02/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Building Code of New York State Chapters 2 to 3502/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Existing Building Code of New York State, Chapters 2 to 1602/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Fire Code of New York State, Chapters 2 to 6702/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Fuel Gas Code of New York State, Chapters 2 to 602/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Mechanical Code of New York State, Chapters 2 to 1502/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Plumbing Code of New York State, Chapters 2 to 1502/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Property Maintenance Code of New York State, Chapters 2 to 802/05/2025In ProcessFALSE
- 6.0The amended and updated version of the NYS Code Books incorporates by reference the 2020 Residential Code of New York State, Chapters 2 to 4402/05/2025In ProcessFALSE
- 6.0Rules on fire protection include 29 CFR 1910 Sub Part L Fire Protection02/05/2025In ProcessFALSE
- 6.0Rules on fire protection include ANSI Z 535.1 Safety Color Code02/05/2025In ProcessFALSE
- 6.0Rules on fire protection include DOE-STD-1066 Fire Protection Design Criteria02/05/2025In ProcessFALSE
GBL-SAFETY_CRYO&PRESS
- 6.0The completed collider complex must comply to ASME BPVC Section VIII - Rules for Construction of Pressure Vessels, Division 1â Rules for Construction of Pressure Vessels and Division 2â Alternative02/05/2025In ProcessFALSE
- 6.0The completed collider complex must comply to ASME B31.3 Process Piping02/05/2025In ProcessFALSE
- 6.0The completed collider complex must comply to BNL-8715-2008-IR Vacuum Systems Consensus Guidelines for DOE Accelerator Laboratories02/05/2025In ProcessFALSE
- 6.0The completed collider complex must comply to Compressed Gas Association (CGA) Standard S-1.3, Pressure Relief Device Standards Part 3 Ð Stationary Storage Containers for Compressed Gases02/05/2025In ProcessFALSE
- 6.0The completed collider complex must comply to ISO 21013-3 Cryogenic vessels - Pressure-relief accessories for cryogenic service Part 3: Sizing capacity determination02/05/2025In ProcessFALSE
- 6.03All EIS components and systems shall be designed and installed in line with all relevant relagutaory codes and in full compliance with BNL SBMS.01/27/2025ApprovedFALSE
- 6.03.03Each electron bunch from the transfer line shall be injected into ESR in its own injection cycle. In a manner that minimizes the background on the detector system.01/27/2025In ProcessFALSE
- 6.06.03The RCS beam abort system shall have a beam inhibit interlock to prevent the Pre-Injector injecting fresh bunches into the RCS under fault conditions.01/27/2025In ProcessFALSE
- 6.06.03The RCS shall have a beam abort system which will use a soft dump process that does not require a dedicated beam dump.01/27/2025In ProcessFALSE
- 6.06.03The RCS shall have a collimation system to protect all other apertures in the RCS.01/27/2025In ProcessFALSE
- 6.06.03The Pre-Injector shall have strategically placed beam dumps for machine protection, commissioning and diagnostics as required.01/27/2025In ProcessFALSE
GBL-SAFETY_EGRESS
- 6.0New construction in the collider complex must be constructed such as to avoid confined space in areas that must be entered by personnel for maintenance and repair. GBL SAFETY_EGRESS.02 Shall avoiding confined space in areas that must be entered by personnel not be possible or lead to unreasonable conditions, the collider design must include mitigation of the corresponding hazard.02/05/2025In ProcessFALSE
- 6.0Any work locations in the collider tunnel shall not be further away than 400 ft from the next tunnel exit when the tunnel has sprinkler protection.02/05/2025In ProcessFALSE
- 6.0The exit path from any work location in the collider tunnel to the next exit must be unobstructed by accelerator components and shall not require underpasses with less than 36 inches width and 36 inches height.02/05/2025In ProcessFALSE
- 6.0Markings shall be provided to denote and preserve access to the duck under.02/05/2025In ProcessFALSE
- 6.0In certain regions a ladder or stair shall be used to access a platform on top of the magnets for egress.02/05/2025In ProcessFALSE
- 6.0Emergency lighting and illuminated exit signs will be provided.02/05/2025In ProcessFALSE
GBL-SAFETY_ELEC
- 6.0Electrical equipment purchased for the accelerator will be certified by a Nationally Recognized Testing Laboratory (NRTL) whenever possible. GBL_SAFETY_ELEC All equipment02/05/2025In ProcessFALSE
- 6.0All equipment will adhere to Classification of Flammable Liquids, Gases, or Vapors and of Hazardous (Classified) Locations for Electrical Installations in Chemical Process02/05/2025In ProcessFALSE
- 6.0All equipment will adhere to National Electrical Code, NFPA 7002/05/2025In ProcessFALSE
- 6.0All equipment will adhere to Electrical Standard for Industrial Machinery, NFPA 7902/05/2025In ProcessFALSE
- 6.0All equipment will adhere to Standard for Competency of Third-Party Field Evaluation Bodies, NFPA 79002/05/2025In ProcessFALSE
GBL-SAFETY_GEN
- 6.0The elements EIC collider complex must be designed and built to meet the BNL Subject Based Management System (https://sbms.bnl.gov/).02/05/2025In ProcessFALSE
- 6.0The elements EIC collider complex must be designed and built to meet the DOE 10CFR851Worker Safety and Health Program.02/05/2025In ProcessFALSE
GBL-SAFETY_LASERS
- 6.0Lasers and laser enclosures will be designed to comply with ANSI Z136.1, American National Standard for the Safe Use of Lasers.02/05/2025In ProcessFALSE
GBL-SAFETY_MAGFIELDS
- 6.0Magnetic fields may be present in accelerator components and personnel exposure will not exceed the thresholds set in ACGIH02/05/2025In ProcessFALSE
GBL-SAFETY_ODH
- 6.0Oxygen deficiency hazards must be avoided by providing oxygen monitoring, ventilation, adequate warning systems and corresponding training of operating and maintenance staff.02/05/2025In ProcessFALSE
- 6.03All EIS components and systems shall be designed and installed in line with all relevant relagutaory codes and in full compliance with BNL SBMS.01/27/2025ApprovedFALSE
- 6.03.03Each electron bunch from the transfer line shall be injected into ESR in its own injection cycle. In a manner that minimizes the background on the detector system.01/27/2025In ProcessFALSE
- 6.06.03The RCS beam abort system shall have a beam inhibit interlock to prevent the Pre-Injector injecting fresh bunches into the RCS under fault conditions.01/27/2025In ProcessFALSE
- 6.06.03The RCS shall have a beam abort system which will use a soft dump process that does not require a dedicated beam dump.01/27/2025In ProcessFALSE
- 6.06.03The RCS shall have a collimation system to protect all other apertures in the RCS.01/27/2025In ProcessFALSE
- 6.06.03The Pre-Injector shall have strategically placed beam dumps for machine protection, commissioning and diagnostics as required.01/27/2025In ProcessFALSE
- 6.0Oxygen deficiency hazards are evaluated using the methodology in SBMS, Oxygen Deficiency Hazards (ODH), System Classification and Controls.02/05/2025In ProcessFALSE
GBL-SAFETY_RAD
- 6.0The radiation safety measures of the EIC shall be compliant with the DOE order 10 CFR 835, Energy/Occupational Radiation Protection and the more stringent requirements set forth in the BNL SBMS.02/05/2025In ProcessFALSE
- 6.0All exposures shall be As Low as Reasonably Achievable.02/05/2025In ProcessFALSE
- 6.0Radiation emitted by the EIC accelerator beams and due particle losses must be shielded such that dose limits outside the accelerator enclosures are 25 mrem annually for an inadvertently exposed person02/05/2025In ProcessFALSE
- 6.0Radiation emitted by the EIC accelerator beams and due particle losses must be shielded such that dose limits outside the accelerator enclosures are 5 mrem annually at the site boundary02/05/2025In ProcessFALSE
- 6.0Radiation emitted by the EIC accelerator beams and due particle losses must be shielded such that dose limits outside the accelerator enclosures are 20 mrem during a fault condition02/05/2025In ProcessFALSE
- 6.0Radiation emitted by the EIC accelerator beams and due particle losses must be shielded such that dose limits outside the accelerator enclosures are 0.5 mrem in 1 hour or 20 mrem in one week for continuously02/05/2025In ProcessFALSE
GBL-SAFETY_RF
- 6.0The RF systems must comply to the ASME BPVC, https://www.asme.org/codes-standards/find-codes-standards/bpvc-complete-code-boiler-pressure-vessel-code-complete-set.02/05/2025In ProcessFALSE
- 6.0The operating EIC has to following the review, inspection and maintenance requirements of the ASME BPVC.02/05/2025In ProcessFALSE
- 6.0The RF exposure to personnel will not exceed the thresholds set in ACGIH Threshold Limit Values Ð 2016.02/05/2025In ProcessFALSE
GBL-SAFETY_VACUUM
- 6.0Vacuum systems will comply to guidelines set forth in the publication, Vacuum Systems Consensus Guideline for Department of Energy Accelerator LaboratoriesÓ, BNL-81715-2008-IR https://intranet.bnl.gov/esh/shsd/seg/refdoc/pressuresafety/vacuum_standard.doc02/05/2025In ProcessFALSE
GBL-SAFETY_WATERCOOL
- 6.0In the design of water-cooling systems, precaution need to be taken to avoid endangering the staff by dangerous bacterial infections. GBL_SAFETY_WATERCOOL.02 The suppression of unwanted effects such as algae in open water circuits must avoid aggressive chemicals.02/05/2025In ProcessFALSE
- 6.0The guideline for design of cooling water systems must obey the ANSI/ASHRAE Standard 188. Legionellosis: Risk Management for Building Water Systems. establishes minimum legionellosis risk management requirements for building water systems. (This is also in the BNL SBMS.)02/05/2025In ProcessFALSE
- 6.0The guideline for design of cooling water systems must obey the State Requirement Protection Against Legionella. 10 NYCRR Part 4 Ð Protection Against Legionella: Subpart 4-1, Cooling Towers.02/05/2025In ProcessFALSE
GBL-UPGRADES
- 6.0The EIC plans to include previsions to allow future a upgrade that is (but is not limited to) two interaction regions and two colliding beam detectors.02/05/2025In ProcessFALSE
- 6.0The EIC must be planned such that a second interaction region and a second detector can be integrated in the collider with a minimum of cost and effort.02/05/2025In ProcessFALSE
- 6.0Integrating a second detector is achieved by designing the present beam trajectories in the possible area for the next IR around IP8 such that a second IR can be introduced without imposing a difference02/05/2025In ProcessFALSE
- 6.0The design of the electron and hadron beam optics and their higher order correction must offer sufficient margin so that the accelerator performance is not compromised by the 2nd IR.02/05/2025In ProcessFALSE
- 6.0Obsolete detector or equipment in the hall around IP8 shall be removed to avoid impeding the construction of a possible 2nd IR02/05/2025In ProcessFALSE
- 6.0The facility must be upgradable to operation with colliding electron and polarized deuteron beams.02/05/2025In ProcessFALSE
Electron Injector System Requirements
General, functional and performance requirements associated with the Electron Injector Systems of the Electron Ion Collider.
- NameWBSDescriptionUpdatedStatusTBD
EIS : Electron Injection System Interface Requirements
- 6.03The EIS shall provide an electron beam having sufficient polarization as required by the ESR to meet the operational modes set forth in the Master Parameter Table (MPT). [Document#:EIC-SEG-RSI-005]01/27/2025ApprovedFALSE
- 6.03.04The pre-injector shall have a high voltage (HV) DC electron gun as the electron source for the EIC.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04When illuminated with a laser of the correct wavelength (780nm+/-5nm) the pre-injector electron gun shall produce the polarized electrons required to operate the EIC.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04The planned building utility requirements (Power, Temperature, Humidity, etc.) shall be consistent with the requirements necessary for the gun to meet its beam performance requirements01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04A compact Mott Polarimeter shall be used to inspect the polarization level and Quantum efficiency of the super lattice GaAs cathode, this system is not part of the gun chamber.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04Multiple air-core Steering coils shall be placed in the bunching to correct the bunch position if needed (Number and positions TBD)01/27/2025On HoldFALSE
- 6.03.02The RCS shall transmit polarization with a 95% efficiency.01/27/2025In ProcessFALSE
- 6.03.04The beam path between the gun and 1st bunching shall be surrounded by a large external magnetic field
canceling Helmholtz coil to trim out the earths magnetic field.01/27/2025On HoldFALSE - 6.03.04The EIS Pre-Injector shall be able to create a spin polarized electron bunch and accelerate it to 400MeV ready for transport to the 400 MeV-transfer line to the RCS.01/27/2025In ProcessFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04.02The Laser system requires a minimum voltage for electrical service 208 Vac02/04/2025On HoldFALSE
- 6.03.04.02The Laser power consumption shall be < 40 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be cooled by chillers which also use the laser system power02/04/2025On HoldFALSE
- 6.03.04.02The Laser cooling power shall not exceed 20 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be able to function in a clean room having an ambient temperature of 18 +/- 2 CO02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall have a repetition rate 0.623 MHz02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse shall have a temporal profile 1.5 to 2 nS02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall operate at a wavelength of 780 +/-5 tunability range nm02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be capable of generating a bunches having at least a spacing between bunches of <1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The Laser Shall have the ability to flip and filter the laser pulses02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse jitter rms shall not exceed <5 ps02/04/2025On HoldFALSE
- 6.03.04.02The laser pulse shall have a transverse truncated gaussian profile02/04/2025On HoldFALSE
- 6.03.04.02The laser (power differential received at the cathode?) in the laser OFF and ON conditions shall be >60 dB02/04/2025On HoldFALSE
- 6.03The EIS shall provide an electron beam having sufficient energy to meet the ESR beam requirements as set forth in the MPT. [Document#:EIC-SEG-RSI-005]01/27/2025ApprovedFALSE
- 6.03.04The Diagnostic beamline section shall be able to measure the electron polarization using a suitable polarimeter01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04.02The Laser system requires a minimum voltage for electrical service 208 Vac02/04/2025On HoldFALSE
- 6.03.04.02The Laser power consumption shall be < 40 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be cooled by chillers which also use the laser system power02/04/2025On HoldFALSE
- 6.03.04.02The Laser cooling power shall not exceed 20 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be able to function in a clean room having an ambient temperature of 18 +/- 2 CO02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall have a repetition rate 0.623 MHz02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse shall have a temporal profile 1.5 to 2 nS02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall operate at a wavelength of 780 +/-5 tunability range nm02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be capable of generating a bunches having at least a spacing between bunches of <1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The Laser Shall have the ability to flip and filter the laser pulses02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse jitter rms shall not exceed <5 ps02/04/2025On HoldFALSE
- 6.03.04.02The laser pulse shall have a transverse truncated gaussian profile02/04/2025On HoldFALSE
- 6.03.04.02The laser (power differential received at the cathode?) in the laser OFF and ON conditions shall be >60 dB02/04/2025On HoldFALSE
- 6.03.04The Pre-Injector separate diagnostic beam line section shall have 3 branches one with a Mott polarimeter & Faraday cup, one containing a connection to the cathode Laser and a line to a low energy beam dump.01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04The instrumentation in the diagnostic beam line shall have the capability to measure beam position, profile, bunch charge and beam halo.01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04To characterize and control the fresh bunches sent to the Mott polarimeter, the gun diagnostic beamline shall contain instrumentation to measure and control the profile, position, and charge of the beam.01/27/2025On HoldFALSE
- 6.03.04The Diagnostic beamline section shall have one Beam Profile Monitor and Wien Filter and an electrostatic bender before the Mott polarimeter and Faraday Cup.01/27/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.01/27/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04The Faraday cup shall be able to measure the charge of the electron bunches from the gun.01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04There shall be instrumentation capable of measuring the surface of the cathode if required.01/27/2025On HoldFALSE
- 6.03.04The laser beam shall illuminate the cathode perpendicular to the cathode face01/27/2025On HoldFALSE
- 6.03.04Following the DC gun, the electron bunch shall be deflected through a bending dipole into the Bunching section01/27/2025On HoldFALSE
- 6.03.042 solenoids shall be placed between the gun and the bending dipole into the bunching section capable of correcting the beam position.01/27/2025On HoldFALSE
- 6.03.04Provision shall be made for an appropriate number of air cored steering coils between the Gun and bunching section to correct the electron beam position as required.01/27/2025On HoldFALSE
- 6.03.04A bending dipole shall follow the Gun and be able to bend the beam from the gun into the bunching section OR bend separate electron bunches into the separate diagnostic beam line.01/27/2025On HoldFALSE
- 6.03.04The bending dipole after the gun shall also have the capability to deflect the beam enough to allow a laser to illuminate the photocathode head on.01/27/2025On HoldFALSE
- 6.03.04A minimum of three solenoids shall be placed between the gun and the first bunching cavity to maintain the beam size for 5Ð10 nC bunches01/28/2025On HoldFALSE
- 6.03.04Short air core trim coils shall be used to correct beam position for energies greater than 100 keV01/27/2025On HoldFALSE
- 6.03.04The Diagnostic beamline solenoids shall be capable of maintaining the beam size in the diagnostic line up to either the Faraday cup or the Mott polarimeter01/27/2025On HoldFALSE
- 6.03.04Beam tube shall be 4 in. Nominal? OD? using 6 in. Conflat flanges01/27/2025On HoldFALSE
- 6.03.04Vacuum system shall be compatible with UHV requirements.01/27/2025On HoldFALSE
- 6.03.04The Laser section shall be independent from the Gun\diagnostic section vacuum.01/27/2025On HoldFALSE
- 6.03.04The pre-injector electron gun shall produce all the bunch patterns required to deliver the ESR beam requirements set forth in [5.9].01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The pre-injector shall have a low energy transfer line from the gun into the beam compression "Bunching" section01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The low energy transfer line shall have an additional branch between the Gun and the Bunching section which can transfer individual electron bunches into the diagnostic beamline section.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The low energy transfer line shall have a laser port between the Gun and the Bunching section which will allow an optical path for the laser to illuminate the cathode face of the gun.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04Following the gun, there shall be multiple groups of magnets required to control the electron beam.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04The gun shall have steering coils to direct the liberated electrons (These can be reused from the existing Gun system.)01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04To characterize and control the fresh bunches the low energy transfer line from the Gun to the Buncher shall contain a plunging transverse profile monitor, a bunch charge monitor, beam loss monitors, and beam position monitors01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The transferred beam shall meet all the requirements of the circulating beam, for all operational modes of the ESR as set forth in [5.9].01/27/2025In ProcessFALSE
- 6.03.03For instrumentation purposes the high energy TL from the RCS to the ESR shall contain a number of strategically placed Beam Position Monitors at the quadrupoles and at the entry and exit of a number of the dipoles as required.01/27/2025In ProcessFALSE
- 6.03.03.04The BPM measurement resolution should be 100 um or less, for a bunch charge range of 100 pc to 28 nC. < 100 um01/27/2025In ProcessFALSE
- 6.03.03.04The BPM acquisition rate shall depend on the rate of transfer from RCS-to-ESR, expected twice per second. 2.5 uS01/27/2025In ProcessFALSE
- 6.03.03.04The number of BPMs in the RCS-to-ESR transport line shall be 10 ea01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be located by the dipole correctors at every 2nd Quad01/27/2025In ProcessFALSE
- 6.03.03.04The BPM pick-up alignment accuracy to each nearby quad shall be within 100 um01/27/2025In ProcessFALSE
- 6.03.03.04The BPM button style pick-ups shall be rotated TBD degree configuration to avoid the synch light near the dipole bends01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used to measure the transport lattice.01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used as input for beam trajectory correction and/or feedforward to optimize transmission efficiency01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs located in the high dispersion regions, shall monitor relative changes in the beam energy.01/27/2025In ProcessFALSE
- 6.03.03For instrumentation purposes the high energy TL from the RCS to the ESR shall contain FCT and an Integrating Current Transformer before the ESR injection septum.01/27/2025In ProcessFALSE
- 6.03.03.04.02An ICT and FCT shall be installed near the end of the transfer line.01/27/2025In ProcessFALSE
- 6.03.03.04.02The bunch charge shall be measured with an accuracy better than <1 %01/27/2025In ProcessFALSE
- 6.03.03.04.02The bunch charge shall be measured with the resolution of 10 pC01/27/2025In ProcessFALSE
- 6.03.03.04.02The FCT shall provide measurements of the bunch patterns being transported to the RCS.01/27/2025In ProcessFALSE
- 6.03.03.04.02The bunch charge monitor shall be used to measure transport efficiency of the Line01/27/2025In ProcessFALSE
- 6.03.03.04.02The FCT shall provide measurements of the bunch patterns being transported to the ESR01/27/2025In ProcessFALSE
- 6.03.03For instrumentation purposes the high energy TL from the RCS to the ESR shall contain a number of strategically placed YAG\OTR at the entry and exit of a number of the diploes and quadrupoles as required.01/27/2025In ProcessFALSE
- 6.03.03.04.03The optical resolution for beam profile measurements shall be < 50 um01/27/2025In ProcessFALSE
- 6.03.03.04.03A single YAG/OTR PM station shall be located at a dispersive location and used to determine the beam energy spread.01/27/2025In ProcessFALSE
- 6.03.03.04.03The "energy spread PM" station shall be able to measure the beam energy over the range TBD01/27/2025In ProcessFALSE
- 6.03.03.04.03The "energy spread PM station" shall be able to measure the beam energy with a resolution of 2.5 10-3 rms units01/27/2025In ProcessFALSE
- 6.03.03.04.03The locations of the profile monitors shall be TBD01/27/2025In ProcessFALSE
- 6.03.03.04.03Multiple, strategically located YAG/OTR screens shall be used in combination for beam emittance measurements01/27/2025In ProcessFALSE
- 6.03.03.04.03The total number of profile monitors shall be TBD ea01/27/2025In ProcessFALSE
- 6.03.03For instrumentation purposes the high energy TL from the RCS to the ESR shall contain a system to measure the beam polarization.01/27/2025In ProcessFALSE
- 6.03.03ESR injection shall have three fast bump magnets to direct the bunches from the HETL into the ESR.01/27/2025In ProcessFALSE
- 6.03.03The fast bump magnets and Fast Kicker of the ESR injector system shall operate in unison with a septum magnet which can direct the beam into the ESR.01/27/2025In ProcessFALSE
- 6.03.03The ESR injection system shall have a fast strip line kicker with a rise time of 2nsecs .01/27/2025In ProcessFALSE
- 6.03.03The High Energy Transfer Line shall match the beam parameters between the extraction point of the RCS and injection point of the ESR.01/27/2025In ProcessFALSE
- 6.03.03The extraction into the required High Energy transfer line shall match the ESR bunch spacing and spin pattern.01/27/2025In ProcessFALSE
- 6.03.03The High Energy Transfer Line shall be spin transparent.01/27/2025In ProcessFALSE
- 6.03.03The ESR extraction system shall have another three bump magnets, its own septum magnet and use the strip line injection kicker to extract and replace the circulating bunches.01/27/2025In ProcessFALSE
- 6.03.03The RCS pre-injector low energy transfer line shall transfer the electron beam from the Gun to the bunching section.01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it exits the buncher section, there shall be a bunch length monitor(BLM) at the exit of the 3rd harmonic buncher cavity to measure bunch compression during commissioning.01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it enters the buncher section, there shall be a beam position monitor (BPM) at the entry to the 1st harmonic buncher cavity to measure beam position.01/27/2025On HoldFALSE
- 6.03.04To control the beam and to measure bunch compression through the buncher section a beam position monitor (BPM) at the entry and exit of the 2nd harmonic buncher cavity to measure beam position.01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it exits the buncher section, beam position monitor(BPM) at the exit of the 3rd harmonic buncher cavity to measure beam position during commissioning.01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it exits the buncher section, there shall be an emittance monitor(EM), at the exit of the 3rd harmonic buncher cavity to measure beam position, the beam emittance during commissioning.01/27/2025On HoldFALSE
- 6.03.04.02.06Emittances shall be measured using a profile monitor and a dedicated upstream quadrupole configured to measure H, V, and skew profiles.02/04/2025On HoldFALSE
- 6.03.04.02.06The EM shall be able to measure the expected normalized emittance of 40 um02/04/2025On HoldFALSE
- 6.03.04.02.06Before the 400 MeV beam goes into the spin rotator, the emittance shall be measured by a quad scan02/04/2025On HoldFALSE
- 6.03.04.02.06Beam emittance shall be measured in the low energy diagnostics beamline using a slit scanner and profile monitor02/04/2025On HoldFALSE
- 6.03.04To control the beam and to measure bunch compression through the buncher section, there shall be an integrating current transformer (ICT), at the entry and exit of the 2nd harmonic buncher cavity to measure charge.01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it exits the buncher section, an integrating current transformer(ICT) at the exit of the 3rd harmonic buncher cavity to measure the bunch charge during commissioning.01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it enters the buncher section, there shall be a beam loss monitor (BLM) at the entry to the 1st harmonic buncher cavity to measure beam loss01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it enters the buncher section, there shall be a transverse profile monitor(TPM) at the entry to the 1st harmonic buncher cavity to measure the charge.01/27/2025On HoldFALSE
- 6.03.04To control the beam and to measure bunch compression through the buncher section there shall be a transverse profile monitor(TPM) at the entry and exit of the 2nd harmonic buncher cavity to measure the bunch profille.01/27/2025On HoldFALSE
- 6.03.04To characterize the beam as it exits the buncher section, transverse profile monitor(TPM) at the exit of the 3rd harmonic buncher cavity the bunch profile during commissioning.01/27/2025On HoldFALSE
- 6.03.04The solenoidal field shall extend to also contain the 1st RF tank of the S-band LINAC.01/27/2025On HoldFALSE
- 6.08All frequencies of the RF cavities shall be harmonics of 1.23156 [MHz] (1/80 beam repetition frequency in the RCS).01/27/2025On HoldFALSE
- 6.08The bunching section shall generate sufficient compression to compress the bunch length to that required by [5.9].01/27/2025On HoldFALSE
- 6.08The bunchers rf voltage and phase will be synchronized so that the passing electron bunches meet the required beam characteristics at the end of the buncher section.01/27/2025On HoldFALSE
- 6.08The Pre-Injector layout shall accommodate all RF cavities and allow enough room for other Pre-Injector components.01/27/2025On HoldFALSE
- 6.08The LINAC TWP cavities shall be constant gradient cavities01/27/2025On HoldFALSE
- 6.06.03The beam dump line shall be capable of being instrumented with a YAG/OTR transverse profile monitor, Integrating Current Transformer, bunch length monitor for commissioning purposes.01/27/2025On HoldFALSE
- 6.06.03To characterize the beam at the exit of the S-band LINAC there shall be a beam dump line which will contain and a dump with Faraday cup capabilities.01/27/2025On HoldFALSE
- 6.03.04To control the beam as it travels through the LINAC section there shall be Beam Position Monitor(BPM) at the exit of all the accelerating cells as required.01/27/2025On HoldFALSE
- 6.03.04Bunch charge(CM) measurements shall be performed at multiple locations through the LINAC.01/27/2025On HoldFALSE
- 6.03.04To measure the beam profile in the LINAC section there shall be a plunging YAG/OTR transverse profile monitor between the 1st and 2nd accelerating cells.01/27/2025On HoldFALSE
- 6.03.04A Quadrupole triplet shall be installed between each accelerating structure in the LINAC to control the beam beta function and dispersion.01/27/2025On HoldFALSE
- 6.03.04The LINAC Quadrupole triplets shall be optimized to control beams with high RCS injection energies ~ 400[MeV]01/27/2025On HoldFALSE
- 6.03.04A drift space with quadrupole triplets shall be placed between each TWP structure to tune the bunch beta function through the LINAC.01/27/2025On HoldFALSE
- 6.03.04In addition to the Quadrupole triplets X Y steering coils shall be installed between each 2.856[GHz] accelerator structure to control the beam beta function and dispersion in the LINAC.01/27/2025On HoldFALSE
- 6.03.04A LINAC XY steering coils shall be optimized to control beams which have low RCS injection energies < < 400[MeV]01/27/2025On HoldFALSE
- 6.03.04Between each S-band LINAC section there shall be at least two window frame steering magnets.01/27/2025On HoldFALSE
- 6.03.04Additionally, window frame steering magnets will be placed at the entry and exit of each accelerating structure to position the bunch.01/27/2025On HoldFALSE
- 6.03.04The LINAC section shall contain enough strategically located Vacuum gate valves, to allow access to the vacuum volume as needed.01/27/2025On HoldFALSE
- 6.03.04Following the Zigzag there shall be a de-chirp cavity to linearize and reduce the energy spread of the bunch.01/27/2025On HoldFALSE
- 6.03.04At the end of the Zigzag there shall be a diagnostic section (details TBD) to measure the bunch length and dP/P.01/27/2025On HoldFALSE
- 6.03.04The ZigZag section shall consist of a number of dipoles separated by drift spaces in a R56 configuration to increase the bunch length to 40ps.01/27/2025On HoldFALSE
- 6.03.04The ZigZag section shall consist of a number of Quadrapoles to control the beam dispersion through the zigzag.01/27/2025On HoldFALSE
- 6.03.04A longitudinal matching section shall follow the S-band LINAC.01/27/2025On HoldFALSE
- 6.03.04The longitudinal matching section shall consist of a so-called Zigzag section followed by a de-chirp cavity which will stretch the bunch length to 40 ps, reduce the energy spread, and generate a longitudinal phase space rotation of the bunches.01/27/2025On HoldFALSE
- 6.03.04At the Zigzag exit, the electron beamÕs average spin orientation shall be longitudinal in the direction of beam travel.01/28/2025On HoldFALSE
- 6.03.04The Pre-Injector S-band LINAC shall be able to accelerate all electron bunches up to the energy's required by [5.9].01/27/2025On HoldFALSE
- 6.03.04The Pre-Injector LINAC frequency shall be consistent with the needs defined in [5.9].01/27/2025On HoldFALSE
- 6.03.04The Pre-Injector LINAC rep-rate shall be consistent with the needs defined in [5.9].01/27/2025On HoldFALSE
- 6.03.03The fast kicker magnet shall be capable of deflecting the electron beam from the RCS to counter the RF kick.01/27/2025On HoldFALSE
- 6.03.03The fast kicker magnet shall follow the rise and fall of the amplitude of the RF sinusoidal functions01/27/2025On HoldFALSE
- 6.03.03The septum magnet shall be capable of deflecting the incoming electron beam into the RCS and shielding the circulating beam already in the RCS.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03To control the beam through the Spin Rotator section there shall be a Beam Position Monitors placed throughout the spin rotator as required.01/27/2025On HoldFALSE
- 6.03.03To measure the bunch profile in the Spin Rotator section there shall be a number of strategically placed YAG/OTR transverse profile monitors at the entry and exit of a number of the quadrupoles.01/27/2025On HoldFALSE
- 6.03.03To measure and control the beam in the medium energy 400 MeV transfer line there shall be sufficient beam position monitors for orbit control, transverse profile monitors, and bunch charge monitors as required.01/27/2025On HoldFALSE
- 6.03.03.04For a bunch charge range of 100 pc to 10 nC, the BPM measurement resolution shall better than 100 um01/27/2025In ProcessFALSE
- 6.03.03.04The BPM acquisition rate shall be up to 100 Hz01/27/2025In ProcessFALSE
- 6.03.03.04The number of BPMs in the Linac-to-RCS transport line shall be TBD ea01/27/2025In ProcessFALSE
- 6.03.03.04The location of the BPMs shall be TBD01/27/2025In ProcessFALSE
- 6.03.03.04The BPM pick-up alignment accuracy with respect to to its nearby quadrapole magnet shall be better than 100 μm01/28/2025In ProcessFALSE
- 6.03.03.04The BPM button style pick-ups shall be rotated 45 degree configuration to avoid the synch light near the dipole bends.01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used as input for beam trajectory correction and/or feedback to optimize transmission efficiency.01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used to measure the beam energy and characterize the accelerator lattice.01/27/2025In ProcessFALSE
- 6.03.03.04The beam energy measurement resolution shall be 0.4 MeV01/27/2025In ProcessFALSE
- 6.03.03.04.02An ICT and FCT shall be installed near the end of the transfer line.01/27/2025On HoldFALSE
- 6.03.03.04.02The bunch charge shall be measured with an accuracy better than <1 %01/27/2025On HoldFALSE
- 6.03.03.04.02The bunch charge shall be measured with the resolution of 10 pC01/27/2025On HoldFALSE
- 6.03.03.04.02The bunch charge monitor shall be used to measure transport efficiency.01/27/2025On HoldFALSE
- 6.03.03.04.02The FCT shall provide measurements of the bunch patterns being transported to the RCS.01/27/2025On HoldFALSE
- 6.03.03.04.02The number of ICTs in transfer line shall be 3 ea01/27/2025On HoldFALSE
- 6.03.03.04.02The number of FCTs in transfer line shall be TBD ea01/27/2025On HoldFALSE
- 6.03.03.04.03The transfer line shall include plunging YAG/OTR screens to measure beam position, transverse profiles and beam emittance measurements.01/27/2025On HoldFALSE
- 6.03.03.04.03The optical resolution for beam profile measurements shall be 50 um01/27/2025On HoldFALSE
- 6.03.03.04.03A YAG/OTR station at a dispersive location shall be used to determine the beam energy spread.01/27/2025On HoldFALSE
- 6.03.03.04.03The measurement capability shall be appropriate to measure a beam energy spread of 1 MeV01/27/2025On HoldFALSE
- 6.03.03.04.03The total number of profile monitors shall be TBD ea01/27/2025On HoldFALSE
- 6.03.03.04.03The measurement capability shall be appropriate to measure a beam emittance (Ref MPT Table 4.4.2.) for H & V of 35 um01/27/2025On HoldFALSE
- 6.03.03.04.03The locations of the profile monitors shall be TBD01/27/2025On HoldFALSE
- 6.03.03At the entry to the spin rotator section before the spin rotator solenoid there shall be a number of bending dipole to rotate the polarization spin from the Longitudinal direction into the transverse X direction.01/27/2025On HoldFALSE
- 6.03.03After the exit of spin rotator solenoid, there shall be a number of bending dipoles to close the geometry and direct the beam into the medium energy 400[MeV] transfer line.01/27/2025On HoldFALSE
- 6.03.03The medium energy 400 MeV transfer line shall have several FODO Quadrupoles to control the beta function along the transfer line.01/27/2025On HoldFALSE
- 6.03.03The corrector Quadrupoles shall be able to suppress the βx and βy along the transfer line to levels consistent with those required ate the RCS injection kicker.01/27/2025On HoldFALSE
- 6.03.03At the entry to the spin rotator section before the spin rotator solenoid there shall be a number of Quadrupoles to ensure the electron beam is achromatic and round before entry into the spin rotator solenoid.01/27/2025On HoldFALSE
- 6.03.03There shall be a number of corrector Quadrupoles at the exit of the Spin rotator section to control the beam optics ready for the 400[MeV] transport line.01/27/2025On HoldFALSE
- 6.03.03The spin rotator entry quadrupoles shall have enough gradient to reduce the bunch dispersion ηx=0, set the beta functions βx=βy and αx=αy=0, ensuring the beam is round uncoupled and uncorrelated as it enters the solenoid.01/27/2025On HoldFALSE
- 6.03.03The spin rotator entry quadrupole shall have at least 2 families this is needed to control the electron beam optics as required.01/27/2025On HoldFALSE
- 6.03.03The spin rotator quadrupoles after the Spin rotator solenoid shall be able to match the beam beta functions βx and βy to that required for entry into the 400MeV transfer line.01/27/2025On HoldFALSE
- 6.03.03The spin rotator exit quadrupoles shall have at least 2 families this is required to control the electron beam optics as needed.01/27/2025On HoldFALSE
- 6.03.03The spin rotator solenoid shall rotate the electron beam spin from the X axis to the vertical y-axis before it enters the medium [400MeV] transport line to the RCS.01/27/2025On HoldFALSE
- 6.03.03The spin rotator solenoid shall have an integrated gradient of 2.2 [T.m] required to rotate the spin from the horizontal axis to the vertical axis.01/27/2025On HoldFALSE
- 6.03.03The bump magnets shall have a rise and time consistent with the requirements of the circulating bunches.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The Pulsed bump magnets shall be able to create a closed orbit path passing close to the Septum and maintain it during each injection cycle (100-150 Hz).01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The medium energy transfer line shall terminate with an injection system capable of transferring the beam into the RCS for all the operating energies and conditions specified in [5.9].01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The injection system shall inject the beam at 12-o'clock straight-section of the RCS.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The vertically spin polarized electron bunch patterns generated by the pre-injector shall be transferred into the RCS unaltered.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The injection system shall be able to inject bunche per injection kick using RF and magnetic kickers to build up a total of 4 bunches from four kicks to the RF and Kickers.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The injection system shall ensure the bunch emittance shall match the requirements of the RCS RF system and such, to avoid collective instabilities and to stay within the off-momentum aperture.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03Each train of four bunches shall be injected into neighboring RF buckets to facilitate bunch merges.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The injection system shall be capable of maintaining the small spacing required by the injected bunches.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The injection system shall contain 3 bump magnets to locally bump the RCS circulating beam close to the Injection septum.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The injection system shall contain an RF kicker and a pulsed magnet followed by a septum magnet to redirect the beam into the RCS closed orbit.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The magnetic field of the injection system pulsed magnet shall follow the rise time of the power amplifiers which drive the RF kickers.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The injection system into the RCS shall be capable of injecting successive bunches into the RCS to create a bunch train with four bunches each circulating in the RCS ready to be merged.01/27/2025On HoldFALSE
- 6.03.03.05.01The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in W shall be 3 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in L shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.01The num magnets shall be 301/27/2025In ProcessFALSE
- 6.03.03.05.01The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rise time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The fall time shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top time shall be 0.05 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.01The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.01The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.01The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.01The deflecting Angle shall be tbd (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.01The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.01The output current spec shall be 425 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.01The inductance with cable shall be 6 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.01The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.02The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in L shall be 8 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.02The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.02The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top time shall be 0.005 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.02The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.02The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.02The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.02The deflecting Angle shall be 30 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.02The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output voltage Spec shall be 30 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.02The output current spec shall be 530 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.02The inductance with cable shall be 12.5 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.02The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The RCS shall be capable of merging each train of 4 bunches into a larger single bunch to create larger single circulating bunche in the RCS.01/27/2025On HoldFALSE
- 6.08There shall be a special RF kicker to kick the injected beam into neighboring RF buckets without disturbing the 8 circulating bunches.01/27/2025On HoldFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.08The special kicker shall consist of an RF harmonic kicker with fundamental frequency of 1/4 of the main RCS RF cavity.01/27/2025On HoldFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.08The special kicker shall have a rise and fall time that matches the RF bucket size.01/27/2025On HoldFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.08The special kicker shall have a peak power necessary to generate a kick to inject the bunch into the RCS.01/27/2025On HoldFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.08The special kicker shall have a macro pulse with a flattop that is greater than the time between the two LINAC bunches and shall have a rise and fall time less than 1 RCS turn.01/27/2025On HoldFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.08The special kicker shall be able to repeat at the LINAC pulse rate.01/27/2025On HoldFALSE
- 6.03.03.05.04The location (Section) shall be 2 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 101/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.0000025 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be 100 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Volts)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03The Medium energy transfer line shall transfer the beam from the pre-injector longitudinal matching section to the RCS.01/27/2025On HoldFALSE
- 6.03.03The Medium energy transfer line shall contain 3 sections: 1. Spin rotation section, 2. The main transfer line, 3. The Injector system.01/27/2025On HoldFALSE
- 6.03.03There will be number of corrector Quadrupoles after the Pre-Injector longitudinal matching and before the spin rotator to provide beam matching into the Spin Rotator.01/27/2025On HoldFALSE
- 6.03.03The medium energy 400 MeV transfer line shall be able to transport the spin reoriented beam from the spin rotator to the RCS injection system.01/27/2025On HoldFALSE
- 6.03.03The medium energy 400 MeV transfer line will maintain the spin direction of the beam along the entire transfer line.01/27/2025On HoldFALSE
- 6.03.03The spin rotator shall ensure the spin direction of the electron bunches are rotated from the longitudinal Z axis to the vertical Y axis.01/27/2025On HoldFALSE
- 6.03.02The RCS shall contain a beam-based alignment system.01/27/2025In ProcessFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, single turn shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, 100 turns average shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, (1 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, (1-4 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located near each quadrupole magnet in the RCS01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located with respect to the nearby quadrupole with alignment accuracy relative to closest quad of better than 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups shall be designed to provide the required measurement resolution for a radial area around the center of +/-10 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups design shall ensure the simulated impedance is within the accepted overall RCS impedance budget01/27/2025ApprovedFALSE
- 6.03.02.05.01The dual plane button style BPM Pickups shall be placed near the RCS focusing quads and rotated at 45 degrees to avoid synchrotron radiation.01/27/2025ApprovedFALSE
- 6.03.02.05.01The single plane button style BPM Pickups shall be placed near the defocusing quads will have a button on the top and bottom.01/27/2025ApprovedFALSE
- 6.03.02The instrumentation system shall include a system to measure individual bunch charges and bunch pattern.01/27/2025In ProcessFALSE
- 6.03.02.05.02A DCCT shall be installed to measure the average current during the RCS cycle.01/27/2025In ProcessFALSE
- 6.03.02.05.02The performance of the DCCT system shall be equivalent to what is provided by the COTS Bergoz NPCT system01/27/2025In ProcessFALSE
- 6.03.02.05.02Provisions shall be made to ensure thermal effects do not interfere with the quality of the average current measurement01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to measure the Individual bunch charges over a charge range of 5 to 28 nC01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to measure to an accuracy of tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to monitor the Bunch patterns tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The location of the DCCT shall be tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The locations of FCT shall be -01/27/2025In ProcessFALSE
- 6.03.02.05.02The range of average beam current to be measured shall be 0. 390 to 4.4 mA01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT system shall have a self calibration system -01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT system shall provide measurements with absolute accuracy of better than 0.2 %01/27/2025In ProcessFALSE
- 6.03.02.05.02The measurement of the average current shall be provided to users at a rate of at least <0.1 Hz01/27/2025In ProcessFALSE
- 6.03.02.05.02The measurement of the average current shall have an RMS noise of less than 0.01 %01/27/2025In ProcessFALSE
- 6.03.02.05.02The digitizer sample rate of the DCCT measurement during the RCS cycle shall be 100 units01/27/2025In ProcessFALSE
- 6.03.02.05.02The measured average current shall be archived at a rate of 100 units01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT sensor shall be radiation resistant01/27/2025In ProcessFALSE
- 6.03.02.05.02Stray magnetic fields near the DCCT sensor shall not exceed 0.01 Gauss01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall operate in the temperature range of 15-35 degrees C 15-35 °C01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT sensor shall have the minimal impedance as seen by the beam01/27/2025In ProcessFALSE
- 6.03.02The instrumentation system shall include a beam current monitor to measure average beam current.01/27/2025In ProcessFALSE
- 6.03.02.05.02A DCCT shall be installed to measure the average current during the RCS cycle.01/27/2025In ProcessFALSE
- 6.03.02.05.02The performance of the DCCT system shall be equivalent to what is provided by the COTS Bergoz NPCT system01/27/2025In ProcessFALSE
- 6.03.02.05.02Provisions shall be made to ensure thermal effects do not interfere with the quality of the average current measurement01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to measure the Individual bunch charges over a charge range of 5 to 28 nC01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to measure to an accuracy of tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to monitor the Bunch patterns tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The location of the DCCT shall be tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The locations of FCT shall be -01/27/2025In ProcessFALSE
- 6.03.02.05.02The range of average beam current to be measured shall be 0. 390 to 4.4 mA01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT system shall have a self calibration system -01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT system shall provide measurements with absolute accuracy of better than 0.2 %01/27/2025In ProcessFALSE
- 6.03.02.05.02The measurement of the average current shall be provided to users at a rate of at least <0.1 Hz01/27/2025In ProcessFALSE
- 6.03.02.05.02The measurement of the average current shall have an RMS noise of less than 0.01 %01/27/2025In ProcessFALSE
- 6.03.02.05.02The digitizer sample rate of the DCCT measurement during the RCS cycle shall be 100 units01/27/2025In ProcessFALSE
- 6.03.02.05.02The measured average current shall be archived at a rate of 100 units01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT sensor shall be radiation resistant01/27/2025In ProcessFALSE
- 6.03.02.05.02Stray magnetic fields near the DCCT sensor shall not exceed 0.01 Gauss01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall operate in the temperature range of 15-35 degrees C 15-35 °C01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT sensor shall have the minimal impedance as seen by the beam01/27/2025In ProcessFALSE
- 6.03.02The RCS shall contain a beam loss monitor system at select regions.01/27/2025In ProcessFALSE
- 6.03.02The instrumentation system shall include a system to measure transverse bunch profiles.01/27/2025In ProcessFALSE
- 6.03.02.05.03Plunging YAG/OTR PM screen stations will be installed in the RCS ring to facilitate commissioning and re-establishing beam01/27/2025In ProcessFALSE
- 6.03.02.05.03The YAG/OTR PM shall be located as follows : one in each straight section (6), and one after the injection septum(1). Making a Total of 7 -01/27/2025In ProcessFALSE
- 6.03.02.05.03The exact locations in the straight sections shall be tbd -01/27/2025In ProcessFALSE
- 6.03.02.05.03Each measurement station will provide three possible options, inserted YAG screen, inserted OTR screen, and an impedance matched sleeve connected with RF fingers during normal operations.01/27/2025In ProcessFALSE
- 6.03.02.05.03The optical resolution for beam profile measurements shall be <50 microns01/27/2025In ProcessFALSE
- 6.03.02.05.03Provisions shall be made so that the impedance match sleeve cannot be inadvertently retracted during normal operations.01/27/2025In ProcessFALSE
- 6.03.02The instrumentation system shall include a system to measure longitudinal bunch profiles.01/27/2025In ProcessFALSE
- 6.03.02.05.03Plunging YAG/OTR PM screen stations will be installed in the RCS ring to facilitate commissioning and re-establishing beam01/27/2025In ProcessFALSE
- 6.03.02.05.03The YAG/OTR PM shall be located as follows : one in each straight section (6), and one after the injection septum(1). Making a Total of 7 -01/27/2025In ProcessFALSE
- 6.03.02.05.03The exact locations in the straight sections shall be tbd -01/27/2025In ProcessFALSE
- 6.03.02.05.03Each measurement station will provide three possible options, inserted YAG screen, inserted OTR screen, and an impedance matched sleeve connected with RF fingers during normal operations.01/27/2025In ProcessFALSE
- 6.03.02.05.03The optical resolution for beam profile measurements shall be <50 microns01/27/2025In ProcessFALSE
- 6.03.02.05.03Provisions shall be made so that the impedance match sleeve cannot be inadvertently retracted during normal operations.01/27/2025In ProcessFALSE
- 6.03.02The 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.01/27/2025In ProcessFALSE
- 6.03.02.05.03Plunging YAG/OTR PM screen stations will be installed in the RCS ring to facilitate commissioning and re-establishing beam01/27/2025In ProcessFALSE
- 6.03.02.05.03The YAG/OTR PM shall be located as follows : one in each straight section (6), and one after the injection septum(1). Making a Total of 7 -01/27/2025In ProcessFALSE
- 6.03.02.05.03The exact locations in the straight sections shall be tbd -01/27/2025In ProcessFALSE
- 6.03.02.05.03Each measurement station will provide three possible options, inserted YAG screen, inserted OTR screen, and an impedance matched sleeve connected with RF fingers during normal operations.01/27/2025In ProcessFALSE
- 6.03.02.05.03The optical resolution for beam profile measurements shall be <50 microns01/27/2025In ProcessFALSE
- 6.03.02.05.03Provisions shall be made so that the impedance match sleeve cannot be inadvertently retracted during normal operations.01/27/2025In ProcessFALSE
- 6.03.02The instrumentation system shall contain a Beam Position Monitor system consisting of dual-plane Beam Position Monitors adjacent to each quadrupole.01/27/2025In ProcessFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, single turn shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, 100 turns average shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, (1 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, (1-4 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located near each quadrupole magnet in the RCS01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located with respect to the nearby quadrupole with alignment accuracy relative to closest quad of better than 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups shall be designed to provide the required measurement resolution for a radial area around the center of +/-10 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups design shall ensure the simulated impedance is within the accepted overall RCS impedance budget01/27/2025ApprovedFALSE
- 6.03.02.05.01The dual plane button style BPM Pickups shall be placed near the RCS focusing quads and rotated at 45 degrees to avoid synchrotron radiation.01/27/2025ApprovedFALSE
- 6.03.02.05.01The single plane button style BPM Pickups shall be placed near the defocusing quads will have a button on the top and bottom.01/27/2025ApprovedFALSE
- 6.03.02Select Beam Position Monitors in the injection region 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.01/27/2025In ProcessFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, single turn shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, 100 turns average shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, (1 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, (1-4 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located near each quadrupole magnet in the RCS01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located with respect to the nearby quadrupole with alignment accuracy relative to closest quad of better than 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups shall be designed to provide the required measurement resolution for a radial area around the center of +/-10 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups design shall ensure the simulated impedance is within the accepted overall RCS impedance budget01/27/2025ApprovedFALSE
- 6.03.02.05.01The dual plane button style BPM Pickups shall be placed near the RCS focusing quads and rotated at 45 degrees to avoid synchrotron radiation.01/27/2025ApprovedFALSE
- 6.03.02.05.01The single plane button style BPM Pickups shall be placed near the defocusing quads will have a button on the top and bottom.01/27/2025ApprovedFALSE
- 6.03.02The instrumentation system shall contain a betatron and synchrotron tune monitors.01/27/2025In ProcessFALSE
- 6.03.02.05Stripline kickers (H & V) shall be installed in the RCS to kick the beam so tunes can be measured by the turn-by-turn BPMs as well as to blow up vertical emittance at end of ramp01/27/2025In ProcessFALSE
- 6.03.02.05The design of the kickers shall adhere to the impedance budget requirement for the RCS ring01/27/2025In ProcessFALSE
- 6.03.02.05The amount of kick that the horizontal and vertical kickers shall provide is 0.2 mrad01/27/2025In ProcessFALSE
- 6.03.02.05The location of the kickers shall be near low beta value01/27/2025In ProcessFALSE
- 6.03.02.05The kicker waveform parameters (pulse shape and length) shall be Pulse shape rectangular
dt=2.4 to 5mS mS01/27/2025In ProcessFALSE - 6.03.02.05The kickers HV PS's shall have the capability to pulse twice per second: Once for tune and once for emittance blow up01/27/2025In ProcessFALSE
- 6.03.02There shall be dipole correctors capable of adjusting the beam orbit.01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet shall have two functions. A H-corrector and a V-corrector01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet shall have a Dipole field.01/27/2025ApprovedFALSE
- 6.03.02.01.03The H-corrector field shall have a vertical field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03The V-corrector field shall have a horizontal field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet bore gap Gh and width Gw shall be Gh=40,Gw=TBD (mm)01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet good field aperture dAx required shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet good field aperture dAy required shall be 5 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet physical length of the magnet shall be <0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet model length shall be 0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at 3GeV Injection the integrated dipole field B shall be 0.00132 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at 18GeV Extraction the integrated dipole field B shall be 0.00759 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at the peak ramp rate shall be 0.00027 (T/s)01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at the magnet-to-magnet field variability shall be < 0.001 (%)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the harmonic reference radius at the design energy of 18 GeV shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the Field at the reference radius and design energy of 18 GeV shall be 0.0004(T)01/27/2025ApprovedFALSE
- 6.03.02.01.03At the magnet the bore field shall have the following multipole content:01/27/2025ApprovedFALSE
- 6.03.02.01.03b1=10000 , a1=0 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b2<10 , -10<a2<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b4<10 , -10<a4<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b5<10 , -10<a5<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b6<10 , -10<a6<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b8<10 , -10<a8<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b7<10 , -10<a7<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b9<10 , -10<a9<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02Window-frame dipole corrector magnets, capable of providing both horizontal and vertical dipole fields to correct the beam orbit in both transverse planes. Dual plane correctors shall be placed adjacent to all focusing quadrupoles and single plane vertical correctors at each defocusing quadrupole01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet shall have two functions. A H-corrector and a V-corrector01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet shall have a Dipole field.01/27/2025ApprovedFALSE
- 6.03.02.01.03The H-corrector field shall have a vertical field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03The V-corrector field shall have a horizontal field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet bore gap Gh and width Gw shall be Gh=40,Gw=TBD (mm)01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet good field aperture dAx required shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet good field aperture dAy required shall be 5 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet physical length of the magnet shall be <0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet model length shall be 0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at 3GeV Injection the integrated dipole field B shall be 0.00132 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at 18GeV Extraction the integrated dipole field B shall be 0.00759 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at the peak ramp rate shall be 0.00027 (T/s)01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at the magnet-to-magnet field variability shall be < 0.001 (%)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the harmonic reference radius at the design energy of 18 GeV shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the Field at the reference radius and design energy of 18 GeV shall be 0.0004(T)01/27/2025ApprovedFALSE
- 6.03.02.01.03At the magnet the bore field shall have the following multipole content:01/27/2025ApprovedFALSE
- 6.03.02.01.03b1=10000 , a1=0 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b2<10 , -10<a2<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b4<10 , -10<a4<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b5<10 , -10<a5<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b6<10 , -10<a6<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b8<10 , -10<a8<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b7<10 , -10<a7<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b9<10 , -10<a9<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02The strength of the Window-frame dipole correctors needs to be chosen to correct for any source of orbit distortion and should have a margin for beam based diagnostic purposes.01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet shall have two functions. A H-corrector and a V-corrector01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet shall have a Dipole field.01/27/2025ApprovedFALSE
- 6.03.02.01.03The H-corrector field shall have a vertical field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03The V-corrector field shall have a horizontal field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet bore gap Gh and width Gw shall be Gh=40,Gw=TBD (mm)01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet good field aperture dAx required shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet good field aperture dAy required shall be 5 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet physical length of the magnet shall be <0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet model length shall be 0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at 3GeV Injection the integrated dipole field B shall be 0.00132 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at 18GeV Extraction the integrated dipole field B shall be 0.00759 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at the peak ramp rate shall be 0.00027 (T/s)01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at the magnet-to-magnet field variability shall be < 0.001 (%)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the harmonic reference radius at the design energy of 18 GeV shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the Field at the reference radius and design energy of 18 GeV shall be 0.0004(T)01/27/2025ApprovedFALSE
- 6.03.02.01.03At the magnet the bore field shall have the following multipole content:01/27/2025ApprovedFALSE
- 6.03.02.01.03b1=10000 , a1=0 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b2<10 , -10<a2<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b4<10 , -10<a4<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b5<10 , -10<a5<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b6<10 , -10<a6<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b8<10 , -10<a8<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b7<10 , -10<a7<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b9<10 , -10<a9<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02The RCS magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets01/27/2025In ProcessFALSE
- 6.03.02The ARC quadrupoles shall generally be arranged in a conventional FODO structure.01/27/2025In ProcessFALSE
- 6.03.02Each quadrupole strength needs to be capable of being changed independently by small amounts for beam-based alignment purposes.01/27/2025In ProcessFALSE
- 6.03.02The main arc quadrupoles shall be powered by a total of 2 power circuits one for focusing the other defocusing.01/27/2025In ProcessFALSE
- 6.03.02The quadrupoles in the straight sections IR10, IR12, IR2, and IR4 (non-colliding IRs) shall have the required number to independent ps to control all quads in these straights and have the required number of independent ps to control quads in IP6 and IP8 straights.01/27/2025In ProcessFALSE
- 6.03.02The quadrupoles shall be individually powered with low supplementary current/voltage power supplies for beam-based alignment purposes.01/27/2025In ProcessFALSE
- 6.03.02The maximum integrated field strength of the FODO sextupoles needs to be sufficient to provide chromatic correction at 18 GeV.01/27/2025In ProcessFALSE
- 6.03.02.01.02The magnet shall have a single function.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet shall have a Sextupole field.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet shall have a normal field rotation.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet good field aperture dAx required shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet good field aperture dAy required shall be 5 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet physical length of the magnet shall be <0.5 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet model length shall be 0.5 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the Integrated grad field G shall be 15.3 T/m2.m01/27/2025ApprovedFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the peak ramp rate shall be 2.73(T/m2.S)01/27/2025ApprovedFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the magnet-to-magnet field variability shall be < 0.001 (%)01/27/2025ApprovedFALSE
- 6.03.02.01.02For magnet at the harmonic reference radius at the design energy of 18 GeV shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02For magnet at the Field at the reference radius and design energy of 18 GeV shall be 30.5(T.m^2)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet the bore field shall have the following multipole content:01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02-10<b4<10 , 0<a4<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b5<10 , 0<a5<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b6<10 , 0<a6<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b8<10 , 0<a8<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b7<10 , 0<a7<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b9<10 , 0<a9<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02Sextupoles shall be sorted into ÒfamiliesÓ, with the family structure dependent on the linear lattice configuration (betatron phase advance per FODO cell).01/28/2025In ProcessFALSE
- 6.03.02.01.02The magnet shall have a single function.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet shall have a Sextupole field.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet shall have a normal field rotation.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet good field aperture dAx required shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet good field aperture dAy required shall be 5 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet physical length of the magnet shall be <0.5 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet model length shall be 0.5 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the Integrated grad field G shall be 15.3 T/m2.m01/27/2025ApprovedFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the peak ramp rate shall be 2.73(T/m2.S)01/27/2025ApprovedFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the magnet-to-magnet field variability shall be < 0.001 (%)01/27/2025ApprovedFALSE
- 6.03.02.01.02For magnet at the harmonic reference radius at the design energy of 18 GeV shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02For magnet at the Field at the reference radius and design energy of 18 GeV shall be 30.5(T.m^2)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet the bore field shall have the following multipole content:01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02-10<b4<10 , 0<a4<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b5<10 , 0<a5<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b6<10 , 0<a6<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b8<10 , 0<a8<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b7<10 , 0<a7<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b9<10 , 0<a9<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02Sextupoles shall be powered based on their ÒfamiliesÓ, with the family structure dependent on the linear lattice configuration for arcs and straight sections.01/28/2025In ProcessFALSE
- 6.03.02.01.02The magnet shall have a single function.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet shall have a Sextupole field.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet shall have a normal field rotation.01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02The magnet good field aperture dAx required shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet good field aperture dAy required shall be 5 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet physical length of the magnet shall be <0.5 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet model length shall be 0.5 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the Integrated grad field G shall be 15.3 T/m2.m01/27/2025ApprovedFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the peak ramp rate shall be 2.73(T/m2.S)01/27/2025ApprovedFALSE
- 6.03.02.01.02For the magnet at 3GeV Injection the magnet-to-magnet field variability shall be < 0.001 (%)01/27/2025ApprovedFALSE
- 6.03.02.01.02For magnet at the harmonic reference radius at the design energy of 18 GeV shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.02For magnet at the Field at the reference radius and design energy of 18 GeV shall be 30.5(T.m^2)01/27/2025ApprovedFALSE
- 6.03.02.01.02The magnet the bore field shall have the following multipole content:01/27/2025ApprovedFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.02-10<b4<10 , 0<a4<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b5<10 , 0<a5<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b6<10 , 0<a6<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b8<10 , 0<a8<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b7<10 , 0<a7<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.02-10<b9<10 , 0<a9<0.2 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02The RCS straight sections shall have the appropirate number of defocusing and focusing quadrupole families per straight section.01/27/2025In ProcessFALSE
- 6.03.02The non-colliding straights will have different scheme.01/27/2025In ProcessFALSE
- 6.03.03the RCS extraction system shall have three fast bump magnets to direct the bunches to the HETL.01/27/2025In ProcessFALSE
- 6.03.03.05.03The location (Section) shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The num magnets shall be 3 -01/27/2025In ProcessFALSE
- 6.03.03.05.03The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.03The rise time shall be 0.001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The fall time shall be 0.001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The flat top time shall be 0.0015 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.03The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.03The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.03The deflecting Angle shall be 1.2 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.03The rep rate spec shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.03The output voltage Spec shall be 50 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.03The output current spec shall be 600 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.03The inductance with cable shall be 26 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.03The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.05The location (Section) type shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in W type shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in L type shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in H type shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The num magnets type shall be 2 -01/27/2025In ProcessFALSE
- 6.03.03.05.05The mag gap type shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.05The rise time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The fall time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top time type shall be 0.0015 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The waveshape type shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top repeatability type shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.05The uniformity of the flattop type shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.05The deflecting Angle type shall be 30 001/27/2025In ProcessFALSE
- 6.03.03.05.05The rep rate spec type shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output voltage Spec type shall be 80 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The inductance with cable type shall be 40 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output current spec type shall be 1200 001/27/2025In ProcessFALSE
- 6.03.03.05.05The cooling type type shall be water01/27/2025In ProcessFALSE
- 6.03.03RCS extraction shall be facilitated with a fast kicker having a rise time of 2 micro-secs01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 15 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 1 -01/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.000002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.00000001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be 2 pulses/cycle01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1.2 001/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 001/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type type shall be water01/27/2025In ProcessFALSE
- 6.03.03The fast bump magnets and Fast Kicker shall operate in unison with a septum magnet which can direct the beam into the HETL.01/27/2025In ProcessFALSE
- 6.03.03.05.05The location (Section) type shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in W type shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in L type shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in H type shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The num magnets type shall be 2 -01/27/2025In ProcessFALSE
- 6.03.03.05.05The mag gap type shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.05The rise time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The fall time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top time type shall be 0.0015 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The waveshape type shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top repeatability type shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.05The uniformity of the flattop type shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.05The deflecting Angle type shall be 30 001/27/2025In ProcessFALSE
- 6.03.03.05.05The rep rate spec type shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output voltage Spec type shall be 80 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The inductance with cable type shall be 40 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output current spec type shall be 1200 001/27/2025In ProcessFALSE
- 6.03.03.05.05The cooling type type shall be water01/27/2025In ProcessFALSE
- 6.03.03The beam injection of the electron bunches from the RCS into the ESR ring shall take place in the 12 oÕclock straight section.01/28/2025In ProcessFALSE
- 6.03.03.05.03The location (Section) shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The num magnets shall be 3 -01/27/2025In ProcessFALSE
- 6.03.03.05.03The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.03The rise time shall be 0.001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The fall time shall be 0.001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The flat top time shall be 0.0015 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.03The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.03The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.03The deflecting Angle shall be 1.2 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.03The rep rate spec shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.03The output voltage Spec shall be 50 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.03The output current spec shall be 600 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.03The inductance with cable shall be 26 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.03The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.05The location (Section) type shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in W type shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in L type shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in H type shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The num magnets type shall be 2 -01/27/2025In ProcessFALSE
- 6.03.03.05.05The mag gap type shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.05The rise time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The fall time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top time type shall be 0.0015 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The waveshape type shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top repeatability type shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.05The uniformity of the flattop type shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.05The deflecting Angle type shall be 30 001/27/2025In ProcessFALSE
- 6.03.03.05.05The rep rate spec type shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output voltage Spec type shall be 80 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output current spec type shall be 1200 001/27/2025In ProcessFALSE
- 6.03.03.05.05The inductance with cable type shall be 40 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.05The cooling type type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 15 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 1 -01/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.000002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.00000001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be 2 pulses/cycle01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1.2 001/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 001/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type type shall be water01/27/2025In ProcessFALSE
- 6.03.03There will be two electron bunches circulating in the RCS at extraction, these shall be injected into the High Energy Transfer Line which connects the RCS to the ESR.01/27/2025In ProcessFALSE
- 6.03.03.05.03The location (Section) shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in W shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in L shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.03The num magnets shall be 3 -01/27/2025In ProcessFALSE
- 6.03.03.05.03The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.03The rise time shall be 0.001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The fall time shall be 0.001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The flat top time shall be 0.0015 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.03The waveshape shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.03The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.03The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.03The deflecting Angle shall be 1.2 (mRad)01/27/2025In ProcessFALSE
- 6.03.03.05.03The rep rate spec shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.03The output voltage Spec shall be 50 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.03The output current spec shall be 600 (Amps)01/27/2025In ProcessFALSE
- 6.03.03.05.03The inductance with cable shall be 26 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.03The cooling type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.05The location (Section) type shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in W type shall be 4 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in L type shall be 10 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The dimension in H type shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.05The num magnets type shall be 2 -01/27/2025In ProcessFALSE
- 6.03.03.05.05The mag gap type shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.05The rise time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The fall time type shall be 0.002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top time type shall be 0.0015 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.05The waveshape type shall be trap01/27/2025In ProcessFALSE
- 6.03.03.05.05The flat top repeatability type shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.05The uniformity of the flattop type shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.05The deflecting Angle type shall be 30 001/27/2025In ProcessFALSE
- 6.03.03.05.05The rep rate spec type shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output voltage Spec type shall be 80 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.05The output current spec type shall be 1200 001/27/2025In ProcessFALSE
- 6.03.03.05.05The inductance with cable type shall be 40 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.05The cooling type type shall be water01/27/2025In ProcessFALSE
- 6.03.03.05.04The location (Section) shall be 12 o'clock01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in W shall be 5 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in L shall be 15 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The dimension in H shall be 7 (ft)01/27/2025In ProcessFALSE
- 6.03.03.05.04The num magnets shall be 1 -01/27/2025In ProcessFALSE
- 6.03.03.05.04The mag gap shall be tbd (cm)01/27/2025In ProcessFALSE
- 6.03.03.05.04The rise time shall be 0.000002 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The fall time shall be 0.00001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top time shall be 0.00000001 (sec)01/27/2025In ProcessFALSE
- 6.03.03.05.04The waveshape shall be 2 pulses/cycle01/27/2025In ProcessFALSE
- 6.03.03.05.04The flat top repeatability shall be tbd %01/27/2025In ProcessFALSE
- 6.03.03.05.04The uniformity of the flattop shall be tbd (V)01/27/2025In ProcessFALSE
- 6.03.03.05.04The deflecting Angle shall be 1.2 001/27/2025In ProcessFALSE
- 6.03.03.05.04The rep rate spec shall be TBD (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output voltage Spec shall be 5000 (Hz)01/27/2025In ProcessFALSE
- 6.03.03.05.04The inductance with cable shall be 4 (uH)01/27/2025In ProcessFALSE
- 6.03.03.05.04The output current spec shall be 2300 001/27/2025In ProcessFALSE
- 6.03.03.05.04The cooling type type shall be water01/27/2025In ProcessFALSE
- 6.08The RF system shall Provide a maximum RF voltage of 60MV to accelerate the beam.01/27/2025In ProcessFALSE
- 6.08The total RF power provided by the RF amplifiers shall be able to compensate for all additional losses created by the stored electron beam in addition to the acceleration and synchrotron losses.01/27/2025In ProcessFALSE
- 6.08The RF system shall Provide sufficient gradient to allow installation of all necessary RF modules in the limited space in IR 10.01/27/2025In ProcessFALSE
- 6.08The RF system shall be able to accommodate 4 circulating bunches in one trains of 4 bunches.01/27/2025In ProcessFALSE
- 6.08The RF system shall be able to merge the one train of 4 bunches into two larger separate circulating bunches then merge these two large bunches into a single larger circulating bunch.01/27/2025In ProcessFALSE
- 6.08The RF system shall be able to accelerate final large, merged bunch to the operating energies needed by the ESR as set forth in [5.9].01/27/2025In ProcessFALSE
- 6.03.02The RF system controls shall be designed to handle the transient beam loading for all bunch structures.01/27/2025In ProcessFALSE
- 6.03.02The vacuum chamber shall provide sufficient horizontal and vertical aperture to accommodate a beam which is 5 σ larger than the largest sigma beam size determined by the injected RMS emittance.01/27/2025In ProcessFALSE
- 6.03.02.04Special aperture requirements and/or aperture file shall be provided by or approved by physics.01/27/2025ApprovedFALSE
- 6.03.02The average dynamic pressure around the ring shall be < 5e-8[Torr] after 1 year of operation.01/27/2025In ProcessFALSE
- 6.03.02.04The average vacuum level in the entire RCS after conditioning (8mts) shall be 5x10^-8 Torr.01/27/2025ApprovedFALSE
- 6.03.02The impedance of the entire RCS vacuum system shall allow for the bunch intensities, beam currents, and bunch numbers contained in [5.9].01/27/2025In ProcessFALSE
- 6.03.02.05.01BPM pick-ups design shall ensure the simulated impedance is within the accepted overall RCS impedance budget01/27/2025ApprovedFALSE
- 6.03.02.05.02The DCCT sensor shall have the minimal impedance as seen by the beam01/27/2025In ProcessFALSE
- 6.03.02.05.03Provisions shall be made so that the impedance match sleeve cannot be inadvertently retracted during normal operations.01/27/2025In ProcessFALSE
- 6.03.02.04The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.01/27/2025ApprovedFALSE
- 6.03.02.04The vacuum chamber shall be capable of absorbing and carrying away the eddy current power.01/27/2025ApprovedFALSE
- 6.03.02.04Copper thickness on beam pipes shall be approved by accelerator physics01/27/2025ApprovedFALSE
- 6.03.02The vacuum chamber and all its components shall be designed to withstand the total synchrotron radiation loads seen in operation.01/27/2025In ProcessFALSE
- 6.03.02.04The vacuum chamber shall be capable of absorb synchrotron radiation and carrying away the absorbed power.01/27/2025ApprovedFALSE
- 6.03.02The RCS shall consist of two parts 1. The main RCS Ring, and 2. The High energy transfer line terminating with the ESR injection system01/27/2025In ProcessFALSE
- 6.03.03The RCS shall be capable of accepting the bunches and matching the bunch parameters as injected by the Medium Energy Transport line.01/27/2025In ProcessFALSE
- 6.03.02After bunch injection into the RCS, the RCS shall merge the injected bunches into two bunches.01/27/2025In ProcessFALSE
- 6.03.02After bunch merging the RCS shall be able to accelerate the final two bunches to the final desired energy set forth in [5.9].01/27/2025In ProcessFALSE
- 6.03.02After the bunches are merged the RCS needs to accelerate to the top possible energy in a time interval consistent with the parameters set forth in [5.9] (18 GeV) in 100 msecs.01/27/2025In ProcessFALSE
- 6.03.03The HETL shall be capable of kicking the accelerated bunches into the High energy Transport line to the ESR.01/27/2025In ProcessFALSE
- 6.03.02RCS will need to increase the vertical emittance to match the ESR vertical emittance.01/27/2025In ProcessFALSE
- 6.03.02The RCS lattice shall have a lattice geometry which can fit into the RHIC tunnel and avoid the EIC's other beamlines and obstructions, yet maintain polarization transmission and beam stability.01/27/2025In ProcessFALSE
- 6.03.02The RCS Lattice shall contain provisions for correctors such as skew quadrupoles, Dipole correctors etc. as needed.01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet shall have two functions. A H-corrector and a V-corrector01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet shall have a Dipole field.01/27/2025ApprovedFALSE
- 6.03.02.01.03The H-corrector field shall have a vertical field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03The V-corrector field shall have a horizontal field direction.01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03The magnet bore gap Gh and width Gw shall be Gh=40,Gw=TBD (mm)01/27/2025In ProcessFALSE
- 6.03.02.01.03The magnet good field aperture dAx required shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet good field aperture dAy required shall be 5 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet physical length of the magnet shall be <0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03The magnet model length shall be 0.33 (m)01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at 3GeV Injection the integrated dipole field B shall be 0.00132 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at 18GeV Extraction the integrated dipole field B shall be 0.00759 T.m01/27/2025ApprovedFALSE
- 6.03.02.01.03< blank >01/28/2025Not ApplicableFALSE
- 6.03.02.01.03For the magnet at the peak ramp rate shall be 0.00027 (T/s)01/27/2025ApprovedFALSE
- 6.03.02.01.03For the magnet at the magnet-to-magnet field variability shall be < 0.001 (%)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the harmonic reference radius at the design energy of 18 GeV shall be 15 (mm)01/27/2025ApprovedFALSE
- 6.03.02.01.03For magnet at the Field at the reference radius and design energy of 18 GeV shall be 0.0004(T)01/27/2025ApprovedFALSE
- 6.03.02.01.03At the magnet the bore field shall have the following multipole content:01/27/2025ApprovedFALSE
- 6.03.02.01.03b1=10000 , a1=0 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b2<10 , -10<a2<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b4<10 , -10<a4<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b5<10 , -10<a5<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b6<10 , -10<a6<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b8<10 , -10<a8<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b7<10 , -10<a7<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.02.01.03-10<b9<10 , -10<a9<10 (10^-4)01/27/2025ApprovedFALSE
- 6.03.04The EIS vacuum system shall meet UHV standards at a minimum (Ref vacuum spec?)01/27/2025In ProcessFALSE
- 6.03.04.01.02Impedance values shall be approved by accelerator physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The typical vacuum chamber aperture shall be 32.9 mm02/04/2025On HoldFALSE
- 6.03.04.01.02Special aperture requirements and/or aperture file shall be provided by or approved by physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The acceptable magnetic field from vacuum equipment within a radius of 16mm or the beam center shall be <0.4 Gauss02/04/2025On HoldFALSE
- 6.03.04.01.02The magnetic permeability for vacuum equipment shall be approved by beam physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The average vacuum level after conditioning shall be 10^-10 Torr02/04/2025On HoldFALSE
- 6.03.04.01.02The vacuum stability (upper pressure limit) shall be TBD Torr02/04/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS High energy transfer line after conditioning (for 6mts) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS medium energy transfer line after conditioning (for 1000hrs) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.02.04The typical vacuum chamber aperture shall be 32.9 mm diameter.01/27/2025ApprovedFALSE
- 6.03.02.04The average vacuum level in the entire RCS after conditioning (8mts) shall be 5x10^-8 Torr.01/27/2025ApprovedFALSE
- 6.03.02.04On 15 m on each side (or one vacuum section) of the SRF cavities the vacuum system shall be processed to class ISO 5.01/27/2025ApprovedFALSE
- 6.03.04The impedance of the entire EIS vacuum system, including the transport lines, shall allow for the bunch intensities, beam currents, and bunch numbers contained in [5.9].01/27/2025In ProcessFALSE
- 6.03.04.01.02Impedance values shall be approved by accelerator physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The typical vacuum chamber aperture shall be 32.9 mm02/04/2025On HoldFALSE
- 6.03.04.01.02Special aperture requirements and/or aperture file shall be provided by or approved by physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The acceptable magnetic field from vacuum equipment within a radius of 16mm or the beam center shall be <0.4 Gauss02/04/2025On HoldFALSE
- 6.03.04.01.02The magnetic permeability for vacuum equipment shall be approved by beam physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The average vacuum level after conditioning shall be 10^-10 Torr02/04/2025On HoldFALSE
- 6.03.04.01.02The vacuum stability (upper pressure limit) shall be TBD Torr02/04/2025On HoldFALSE
- 6.03.03.03The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.01/27/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03Special aperture requirements and/or aperture file shall be provided by or approved by physics.01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS High energy transfer line after conditioning (for 6mts) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.03.03The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.01/27/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS medium energy transfer line after conditioning (for 1000hrs) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03Special aperture requirements and/or aperture file shall be provided by or approved by physics.01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.02.04The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.01/27/2025ApprovedFALSE
- 6.03.02.04The typical vacuum chamber aperture shall be 32.9 mm diameter.01/27/2025ApprovedFALSE
- 6.03.02.04Special aperture requirements and/or aperture file shall be provided by or approved by physics.01/27/2025ApprovedFALSE
- 6.03.02.04The average vacuum level in the entire RCS after conditioning (8mts) shall be 5x10^-8 Torr.01/27/2025ApprovedFALSE
- 6.03.02.04Copper thickness on beam pipes shall be approved by accelerator physics01/27/2025ApprovedFALSE
- 6.03.04The size, location and type of vacuum pumps shall be chosen to meet the required vacuum levels during operation01/27/2025In ProcessFALSE
- 6.03.04.01.02Impedance values shall be approved by accelerator physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The typical vacuum chamber aperture shall be 32.9 mm02/04/2025On HoldFALSE
- 6.03.04.01.02Special aperture requirements and/or aperture file shall be provided by or approved by physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The acceptable magnetic field from vacuum equipment within a radius of 16mm or the beam center shall be <0.4 Gauss02/04/2025On HoldFALSE
- 6.03.04.01.02The magnetic permeability for vacuum equipment shall be approved by beam physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The average vacuum level after conditioning shall be 10^-10 Torr02/04/2025On HoldFALSE
- 6.03.04.01.02The vacuum stability (upper pressure limit) shall be TBD Torr02/04/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS High energy transfer line after conditioning (for 6mts) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS medium energy transfer line after conditioning (for 1000hrs) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.02.04The typical vacuum chamber aperture shall be 32.9 mm diameter.01/27/2025ApprovedFALSE
- 6.03.02.04The average vacuum level in the entire RCS after conditioning (8mts) shall be 5x10^-8 Torr.01/27/2025ApprovedFALSE
- 6.03.04Appropriate vacuum gauging shall be supplied in each vacuum sector to monitor the required vacuum levels01/27/2025In ProcessFALSE
- 6.03.04.01.02Impedance values shall be approved by accelerator physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The typical vacuum chamber aperture shall be 32.9 mm02/04/2025On HoldFALSE
- 6.03.04.01.02Special aperture requirements and/or aperture file shall be provided by or approved by physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The acceptable magnetic field from vacuum equipment within a radius of 16mm or the beam center shall be <0.4 Gauss02/04/2025On HoldFALSE
- 6.03.04.01.02The magnetic permeability for vacuum equipment shall be approved by beam physics.02/04/2025On HoldFALSE
- 6.03.04.01.02The average vacuum level after conditioning shall be 10^-10 Torr02/04/2025On HoldFALSE
- 6.03.04.01.02The vacuum stability (upper pressure limit) shall be TBD Torr02/04/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS High energy transfer line after conditioning (for 6mts) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.03.03The average vacuum level in all EIS medium energy transfer line after conditioning (for 1000hrs) shall be 5x10^-8 Torr01/27/2025On HoldFALSE
- 6.03.03.03The typical vacuum chamber aperture shall be 32.9 mm01/27/2025On HoldFALSE
- 6.03.03.03The vacuum stability (upper pressure limit) shall be TBD Torr01/27/2025On HoldFALSE
- 6.03.02.04The typical vacuum chamber aperture shall be 32.9 mm diameter.01/27/2025ApprovedFALSE
- 6.03.02.04The average vacuum level in the entire RCS after conditioning (8mts) shall be 5x10^-8 Torr.01/27/2025ApprovedFALSE
- 6.03.04The EIS Pre-Injector shall consist of 3 sub-systems: 1. An electron gun section, followed by 2. A low energy transfer line and bunching section, followed by 3. A LINAC section01/27/2025In ProcessFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04.02The Laser system requires a minimum voltage for electrical service 208 Vac02/04/2025On HoldFALSE
- 6.03.04.02The Laser power consumption shall be < 40 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be cooled by chillers which also use the laser system power02/04/2025On HoldFALSE
- 6.03.04.02The Laser cooling power shall not exceed 20 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be able to function in a clean room having an ambient temperature of 18 +/- 2 CO02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall have a repetition rate 0.623 MHz02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse shall have a temporal profile 1.5 to 2 nS02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall operate at a wavelength of 780 +/-5 tunability range nm02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be capable of generating a bunches having at least a spacing between bunches of <1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The Laser Shall have the ability to flip and filter the laser pulses02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse jitter rms shall not exceed <5 ps02/04/2025On HoldFALSE
- 6.03.04.02The laser pulse shall have a transverse truncated gaussian profile02/04/2025On HoldFALSE
- 6.03.04.02The laser (power differential received at the cathode?) in the laser OFF and ON conditions shall be >60 dB02/04/2025On HoldFALSE
- 6.03.04EIS shall have all the beam instrumentation necessary to deliver the operational parameters set forth in [5.9].01/27/2025In ProcessFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.03.04.01The BPM single bunch measurement resolution for a (1 - 4 nC) pilot bunch shall be < 1mm01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPM single bunch measurement resolution for (5.5 - 28 nC) bunches shall be < 100microns01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPM acquisition rate shall depend on the rate of transfer from RCS-to-ESR, expected twice per second.01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPMs shall be used as input for beam trajectory correction and/or feedforward to optimize transmission efficiency01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPMs shall be used to measure the transport lattice.01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPMs located in the high dispersion regions, shall monitor relative changes in the beam energy.01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPM Pickup alignment accuracy to each nearby quad shall be within 100 um01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPM Pickup shall be rotated 45 degree configuration to avoid the synch light near the dipole bends.01/27/2025ApprovedFALSE
- 6.03.03.04.01The number of BPM Pickups in the RCS-to-ESR transport line shall be 10 ea01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPM Pickups shall be located by the dipole correctors at every second quadrupole.01/27/2025ApprovedFALSE
- 6.03.03.04The BPM measurement resolution should be 100 um or less, for a bunch charge range of 100 pc to 28 nC. < 100 um01/27/2025In ProcessFALSE
- 6.03.03.04The BPM acquisition rate shall depend on the rate of transfer from RCS-to-ESR, expected twice per second. 2.5 uS01/27/2025In ProcessFALSE
- 6.03.03.04The number of BPMs in the RCS-to-ESR transport line shall be 10 ea01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be located by the dipole correctors at every 2nd Quad01/27/2025In ProcessFALSE
- 6.03.03.04The BPM pick-up alignment accuracy to each nearby quad shall be within 100 um01/27/2025In ProcessFALSE
- 6.03.03.04The BPM button style pick-ups shall be rotated TBD degree configuration to avoid the synch light near the dipole bends01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used as input for beam trajectory correction and/or feedforward to optimize transmission efficiency01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used to measure the transport lattice.01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs located in the high dispersion regions, shall monitor relative changes in the beam energy.01/27/2025In ProcessFALSE
- 6.03.03.04.02An ICT and FCT shall be installed near the end of the transfer line.01/27/2025In ProcessFALSE
- 6.03.03.04.02The bunch charge shall be measured with an accuracy better than <1 %01/27/2025In ProcessFALSE
- 6.03.03.04.02The bunch charge shall be measured with the resolution of 10 pC01/27/2025In ProcessFALSE
- 6.03.03.04.02The bunch charge monitor shall be used to measure transport efficiency of the Line01/27/2025In ProcessFALSE
- 6.03.03.04.02The FCT shall provide measurements of the bunch patterns being transported to the RCS.01/27/2025In ProcessFALSE
- 6.03.03.04.02The FCT shall provide measurements of the bunch patterns being transported to the ESR01/27/2025In ProcessFALSE
- 6.03.03.04.03The optical resolution for beam profile measurements shall be < 50 um01/27/2025In ProcessFALSE
- 6.03.03.04.03A single YAG/OTR PM station shall be located at a dispersive location and used to determine the beam energy spread.01/27/2025In ProcessFALSE
- 6.03.03.04.03The "energy spread PM" station shall be able to measure the beam energy over the range TBD01/27/2025In ProcessFALSE
- 6.03.03.04.03The "energy spread PM station" shall be able to measure the beam energy with a resolution of 2.5 10-3 rms units01/27/2025In ProcessFALSE
- 6.03.03.04.03Multiple, strategically located YAG/OTR screens shall be used in combination for beam emittance measurements01/27/2025In ProcessFALSE
- 6.03.03.04.03The locations of the profile monitors shall be TBD01/27/2025In ProcessFALSE
- 6.03.03.04.03The total number of profile monitors shall be TBD ea01/27/2025In ProcessFALSE
- 6.03.03.04.01For a (1 nC) pilot bunch, the BPM single bunch measurement resolution shall be < 1mm01/27/2025ApprovedFALSE
- 6.03.03.04.01For (5.5 - 10 nC) bunches, the BPM single bunch measurement resolution shall be < 100microns01/27/2025ApprovedFALSE
- 6.03.03.04.01The beam energy measurement resolution shall be 0.4 MeV01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPM acquisition rate shall be up to 100 Hz01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPMs shall be used as input for beam trajectory correction and/or feedback to optimize transmission efficiency.01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPMs shall be used to measure the beam energy and characterize the accelerator lattice.01/27/2025ApprovedFALSE
- 6.03.03.04.01The BPM pick-up alignment accuracy with respect to to its nearby quadrapole magnet shall be better than 100 μm01/28/2025ApprovedFALSE
- 6.03.03.04.01The BPM button style pick-ups shall be rotated 45 degree configuration to avoid the synch light near the dipole bends.01/27/2025ApprovedFALSE
- 6.03.03.04.01The number of BPM Pickups in the Linac-to-RCS transport line shall be TBD ea01/27/2025ApprovedFALSE
- 6.03.03.04.01The location of the BPM Pickups shall be TBD01/27/2025ApprovedFALSE
- 6.03.03.04For a bunch charge range of 100 pc to 10 nC, the BPM measurement resolution shall better than 100 um01/27/2025In ProcessFALSE
- 6.03.03.04The BPM acquisition rate shall be up to 100 Hz01/27/2025In ProcessFALSE
- 6.03.03.04The number of BPMs in the Linac-to-RCS transport line shall be TBD ea01/27/2025In ProcessFALSE
- 6.03.03.04The location of the BPMs shall be TBD01/27/2025In ProcessFALSE
- 6.03.03.04The BPM pick-up alignment accuracy with respect to to its nearby quadrapole magnet shall be better than 100 μm01/28/2025In ProcessFALSE
- 6.03.03.04The BPM button style pick-ups shall be rotated 45 degree configuration to avoid the synch light near the dipole bends.01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used as input for beam trajectory correction and/or feedback to optimize transmission efficiency.01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be used to measure the beam energy and characterize the accelerator lattice.01/27/2025In ProcessFALSE
- 6.03.03.04The beam energy measurement resolution shall be 0.4 MeV01/27/2025In ProcessFALSE
- 6.03.03.04.02An ICT and FCT shall be installed near the end of the transfer line.01/27/2025On HoldFALSE
- 6.03.03.04.02The bunch charge shall be measured with an accuracy better than <1 %01/27/2025On HoldFALSE
- 6.03.03.04.02The bunch charge shall be measured with the resolution of 10 pC01/27/2025On HoldFALSE
- 6.03.03.04.02The bunch charge monitor shall be used to measure transport efficiency.01/27/2025On HoldFALSE
- 6.03.03.04.02The FCT shall provide measurements of the bunch patterns being transported to the RCS.01/27/2025On HoldFALSE
- 6.03.03.04.02The number of ICTs in transfer line shall be 3 ea01/27/2025On HoldFALSE
- 6.03.03.04.02The number of FCTs in transfer line shall be TBD ea01/27/2025On HoldFALSE
- 6.03.03.04.03The transfer line shall include plunging YAG/OTR screens to measure beam position, transverse profiles and beam emittance measurements.01/27/2025On HoldFALSE
- 6.03.03.04.03The optical resolution for beam profile measurements shall be 50 um01/27/2025On HoldFALSE
- 6.03.03.04.03A YAG/OTR station at a dispersive location shall be used to determine the beam energy spread.01/27/2025On HoldFALSE
- 6.03.03.04.03The measurement capability shall be appropriate to measure a beam energy spread of 1 MeV01/27/2025On HoldFALSE
- 6.03.03.04.03The measurement capability shall be appropriate to measure a beam emittance (Ref MPT Table 4.4.2.) for H & V of 35 um01/27/2025On HoldFALSE
- 6.03.03.04.03The total number of profile monitors shall be TBD ea01/27/2025On HoldFALSE
- 6.03.03.04.03The locations of the profile monitors shall be TBD01/27/2025On HoldFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, single turn shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for (1 nC) pilot bunch, 100 turns average shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, (1 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for 4 bunch train & 2 bunch train (before merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, (1-4 nC) pilot bunch shall be < 1 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), single turn, 5.5-28 nC bunches shall be < 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01Measurement resolution for single bunch (after merges), 100 turns average, 5.5-28 nC bunches shall be < 10 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located near each quadrupole magnet in the RCS01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-up shall be located with respect to the nearby quadrupole with alignment accuracy relative to closest quad of better than 100 microns01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups shall be designed to provide the required measurement resolution for a radial area around the center of +/-10 mm01/27/2025ApprovedFALSE
- 6.03.02.05.01BPM pick-ups design shall ensure the simulated impedance is within the accepted overall RCS impedance budget01/27/2025ApprovedFALSE
- 6.03.02.05.01The dual plane button style BPM Pickups shall be placed near the RCS focusing quads and rotated at 45 degrees to avoid synchrotron radiation.01/27/2025ApprovedFALSE
- 6.03.02.05.01The single plane button style BPM Pickups shall be placed near the defocusing quads will have a button on the top and bottom.01/27/2025ApprovedFALSE
- 6.03.02.05.02A DCCT shall be installed to measure the average current during the RCS cycle.01/27/2025In ProcessFALSE
- 6.03.02.05.02The performance of the DCCT system shall be equivalent to what is provided by the COTS Bergoz NPCT system01/27/2025In ProcessFALSE
- 6.03.02.05.02Provisions shall be made to ensure thermal effects do not interfere with the quality of the average current measurement01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to measure the Individual bunch charges over a charge range of 5 to 28 nC01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to measure to an accuracy of tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall be able to monitor the Bunch patterns tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The location of the DCCT shall be tba -01/27/2025In ProcessFALSE
- 6.03.02.05.02The locations of FCT shall be -01/27/2025In ProcessFALSE
- 6.03.02.05.02The range of average beam current to be measured shall be 0. 390 to 4.4 mA01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT system shall have a self calibration system -01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT system shall provide measurements with absolute accuracy of better than 0.2 %01/27/2025In ProcessFALSE
- 6.03.02.05.02The measurement of the average current shall be provided to users at a rate of at least <0.1 Hz01/27/2025In ProcessFALSE
- 6.03.02.05.02The measurement of the average current shall have an RMS noise of less than 0.01 %01/27/2025In ProcessFALSE
- 6.03.02.05.02The digitizer sample rate of the DCCT measurement during the RCS cycle shall be 100 units01/27/2025In ProcessFALSE
- 6.03.02.05.02The measured average current shall be archived at a rate of 100 units01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT sensor shall be radiation resistant01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT shall operate in the temperature range of 15-35 degrees C 15-35 °C01/27/2025In ProcessFALSE
- 6.03.02.05.02Stray magnetic fields near the DCCT sensor shall not exceed 0.01 Gauss01/27/2025In ProcessFALSE
- 6.03.02.05.02The DCCT sensor shall have the minimal impedance as seen by the beam01/27/2025In ProcessFALSE
- 6.03.02.05.04A synchrotron light monitor (SLM) shall be installed in the RCS ring downstream of an RCS dipole magnet01/27/2025In ProcessFALSE
- 6.03.02.05.04The location of the SLM light extraction port shall be- TBD01/27/2025In ProcessFALSE
- 6.03.02.05.04The synchrotron light shall be transported from the RCS light extraction port to an optical table for detection.01/27/2025In ProcessFALSE
- 6.03.02.05.04The synchrotron light optical table shall have a streak camera and gated camera shall be installed.01/27/2025In ProcessFALSE
- 6.03.02.05.04The SLM shall be able to make Turn-by-turn measurements using gated cameras to provide measurements of; the injection matching parameters and the beam position stability parameters during acceleration. TBD -01/27/2025In ProcessFALSE
- 6.03.02.05.04The SLM shall be used to provide horizontal and vertical transverse profile measurements on bunches with charges > 6nC01/27/2025In ProcessFALSE
- 6.03.02.05.04The SLM horizontal and vertical transverse profile measurements shall be measured with a resolution in both planes of 0.1 mm01/27/2025In ProcessFALSE
- 6.03.02.05.04The SLM shall be used to provide longitudinal profile measurements01/27/2025In ProcessFALSE
- 6.03.02.05.04A dual sweep streak camera shall be used to provide measurements of the bunch length and longitudinal profiles01/27/2025In ProcessFALSE
- 6.03.02.05.04The dual sweep streak camera shall have a resolution of <5 ps01/27/2025In ProcessFALSE
- 6.03.02.05.04The profile measurements shall be used, together with modeled or measured beam optics to infer the beam emittances and energy spread.01/27/2025In ProcessFALSE
- 6.03.02.05.04The Vertical emittance measurement for bunch charges > 6nC, shall be measured with a precision of 0.6 nm (un-norm)01/27/2025In ProcessFALSE
- 6.03.02.05.04The Horizontal emittance measurement for bunch charges > 6nC, shall be measured with a precision of 10 nm (un-norm)01/27/2025In ProcessFALSE
- 6.03.02.05.04The Longitudinal emittance measurement for bunch charges > 6nC, shall be measured with a precision of 0.00001 eV-s01/27/2025In ProcessFALSE
- 6.03.02.05.04The Energy spread measurement, for bunch charges > 6nC, shall be measured with a precision of 0.0001 dp/p01/27/2025In ProcessFALSE
- 6.03.02.05Stripline kickers (H & V) shall be installed in the RCS to kick the beam so tunes can be measured by the turn-by-turn BPMs as well as to blow up vertical emittance at end of ramp01/27/2025In ProcessFALSE
- 6.03.02.05The design of the kickers shall adhere to the impedance budget requirement for the RCS ring01/27/2025In ProcessFALSE
- 6.03.02.05The amount of kick that the horizontal and vertical kickers shall provide is 0.2 mrad01/27/2025In ProcessFALSE
- 6.03.02.05The kicker waveform parameters (pulse shape and length) shall be Pulse shape rectangular
dt=2.4 to 5mS mS01/27/2025In ProcessFALSE - 6.03.02.05The location of the kickers shall be near low beta value01/27/2025In ProcessFALSE
- 6.03.02.05The kickers HV PS's shall have the capability to pulse twice per second: Once for tune and once for emittance blow up01/27/2025In ProcessFALSE
- 6.03.02.05.03Plunging YAG/OTR PM screen stations will be installed in the RCS ring to facilitate commissioning and re-establishing beam01/27/2025In ProcessFALSE
- 6.03.02.05.03The YAG/OTR PM shall be located as follows : one in each straight section (6), and one after the injection septum(1). Making a Total of 7 -01/27/2025In ProcessFALSE
- 6.03.02.05.03The exact locations in the straight sections shall be tbd -01/27/2025In ProcessFALSE
- 6.03.02.05.03The optical resolution for beam profile measurements shall be <50 microns01/27/2025In ProcessFALSE
- 6.03.02.05.03Each measurement station will provide three possible options, inserted YAG screen, inserted OTR screen, and an impedance matched sleeve connected with RF fingers during normal operations.01/27/2025In ProcessFALSE
- 6.03.02.05.03Provisions shall be made so that the impedance match sleeve cannot be inadvertently retracted during normal operations.01/27/2025In ProcessFALSE
- 6.04.06.02A bunch pattern monitor shall be installed in the ESR to measure indiviual bunch charge with an accuracy 1 %01/27/2025In ProcessFALSE
- 6.04.06.02The Bunch pattern monitor shall be capable of measuring Bunch patterns ranging from a single bunch, to a filled ring with 1,160 bunches01/27/2025In ProcessFALSE
- 6.04.06.05BLM shall be needed to needed to protect sensitive equipment.01/27/2025In ProcessFALSE
- 6.04.06.05The number of BLM installed in the ESR shall be TBD ea01/27/2025In ProcessFALSE
- 6.04.06.05BLM shall be installed at the following locations in the ESR TBD01/27/2025In ProcessFALSE
- 6.04.06.05The sensitivity of the BLM detectors shall be TBD units?01/27/2025In ProcessFALSE
- 6.04.06.05Where possible existing RHIC BLM's can be relocated to identify ESR & HSR losses01/27/2025In ProcessFALSE
- 6.04.06.05The response time from loss detection to abort shall be TBD us01/27/2025In ProcessFALSE
- 6.04.06.01Beam position monitor shall have electronics with turn-by-turn capability01/27/2025In ProcessFALSE
- 6.04.06.01The first 20 BPMs after injection shall be capable of measuring individual bunch positions to minimize betatron oscillations of the newly injected bunches.01/27/2025In ProcessFALSE
- 6.04.06.01For 2 nC pilot bunches, single turn, the BPM measurement resolution shall be 100 um01/27/2025In ProcessFALSE
- 6.04.06.01For 2 nC pilot bunches, single turn, the BPM maximum allowable drift shall be 50 um01/27/2025In ProcessFALSE
- 6.04.06.01For 2 nC pilot bunches, 1,000 turns average, the BPM measurement resolution shall be 30 um01/27/2025In ProcessFALSE
- 6.04.06.01For 2 nC pilot bunches, 1,000 turns average, the BPM maximum allowable drift shall be 30 um01/27/2025In ProcessFALSE
- 6.04.06.01For newly injected refill bunches , with low charge (2nC bunches), in presence of stored beam, the measurement resolution shall be H=50
V=10 um01/27/2025In ProcessFALSE - 6.04.06.01For newly injected refill bunches , with low charge (2nC bunches), in presence of stored beam, the maximum allowable drift shall be 10 um01/27/2025In ProcessFALSE
- 6.04.06.01For newly injected refill bunch - high charge (7-28 nC bunch range), in presence of stored beam, the measurement resolution shall be H=10
V=5 um01/27/2025In ProcessFALSE - 6.04.06.01For newly injected refill bunch - high charge (7-28 nC bunch range), in presence of stored beam, the maximum allowable drift shall be 5 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, turn-by-turn - low charge(2 nC bunches),the measurement resolution shall be H=V=30 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, turn-by-turn - low charge(2 nC bunches), the maximum allowable drift H=V=30 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, turn-by-turn - high charge(7-28 nC bunch range), the measurement resolution shall be H=V=10 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, turn-by-turn - high charge(7-28 nC bunch range), the maximum allowable drift shall be H=V=10 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, 1,000 turns average, high charge(7-28 nC bunch range),the measurement resolution shall be H=V=5 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, 1,000 turns average, high charge(7-28 nC bunch range),the maximum allowable drift shall be H=V=5 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, 1 second average, high charge(7-28 nC bunch range), the measurement resolution shall be H=V=1 um01/27/2025In ProcessFALSE
- 6.04.06.01For stored beam, 1 second average, high charge, 7-28 nC bunch range, the maximum allowable drift shall be H=V=1 um01/27/2025In ProcessFALSE
- 6.04.06.01The BPM sum signals shall be used to measure bunch lifetime (1/e) during the 2.5 minute bunch duration01/27/2025In ProcessFALSE
- 6.04.06.01There shall be Dual plane BPM pick-ups shall be located at all vertically focusing quads,and at all quadrupoles within about +/- 100 meters around IP601/27/2025In ProcessFALSE
- 6.04.06.01There shall be NO BPMs at the horizontally focusing quadrupoles.01/27/2025In ProcessFALSE
- 6.04.06.01No single plane BPMs are required for the ESR01/27/2025In ProcessFALSE
- 6.04.06.01Special BPM pick-ups shall be located between the RF cavities in sector 10, for position resolution01/27/2025In ProcessFALSE
- 6.04.06.01The total number of ESR BPM pick-ups shall be 220 BPMs01/27/2025In ProcessFALSE
- 6.04.06.01The ESR BPM pick-ups shall be designed to provide the required measurement resolution over the range of H=+/- 10
V=+/- 5 mm01/27/2025In ProcessFALSE - 6.04.06.01No ESR BPM pick-ups shall be required to have an unusual range of position requirements.01/27/2025In ProcessFALSE
- 6.04.06.01The BPM pick-up design shall ensure the simulated impedance is within the accepted overall ESR impedance budget.01/27/2025In ProcessFALSE
- 6.04.06.01The BPM pick-up shall be designed to ensure the maximim temperatures of the components (due to heating by the beam) are acceptable for reliability and operations, using thermal simulation software.01/27/2025In ProcessFALSE
- 6.04.06.01The BPM pick-ups shall be designed to be baked to 250 °C for a sufficiently large number of thermal cycles.01/27/2025In ProcessFALSE
- 6.04.06.01The BPM pick-up installation mechanical misalignment tolerance shall be same as for the quadrupoles. 100 μm01/28/2025In ProcessFALSE
- 6.04.06.01The relative alignment of the BPMs and neighboring quads, after BBA shall be <20 μm01/28/2025In ProcessFALSE
- 6.04.06.01The BPM pick-up operational misalignement tolerance variations due to thermal cycling of the ESR shall be <20 μm01/28/2025In ProcessFALSE
- 6.04.06.02A DCCT shall measure the average beam current in the ESR.01/27/2025In ProcessFALSE
- 6.04.06.02The measurement resolution averaged over 1 sec shall be < 5 uA01/27/2025In ProcessFALSE
- 6.04.06.02The DCCT beamline device impedance shall be approved by beam physics.01/27/2025In ProcessFALSE
- 6.04.06.02Measurement drift tolerance (thermal effects) shall be ≤ 1 uA/K01/27/2025In ProcessFALSE
- 6.04.06.02The DCCT sensor in the ring shall operate in the temperature range of 15 to 35 degrees C01/27/2025In ProcessFALSE
- 6.04.06.02The range of average beam current to be measured shall be 0.156x10-3 to 2.5 A01/27/2025In ProcessFALSE
- 6.04.06.02The DCCT system shall have a remote controlled self calibration system01/27/2025In ProcessFALSE
- 6.04.06.02The DCCT system shall provide measurements with absolute accuracy of better than 0.2 %01/27/2025In ProcessFALSE
- 6.04.06.02The measured average current shall be provided to users at a rate of 10 Hz01/27/2025In ProcessFALSE
- 6.04.06.02The measured average current shall be archived at a rate of 10 Hz Hz01/27/2025In ProcessFALSE
- 6.04.06.02The DCCT sensor assembly in the ring shall be radiation resistant01/27/2025In ProcessFALSE
- 6.04.06.03The requirements for longitudinal feedback are ??? TBD01/27/2025In ProcessFALSE
- 6.04.06.03The Longitudinal feedback systems shall be capable of counteracting single-bunch rise times of 1 ms01/27/2025In ProcessFALSE
- 6.04.06.04The ESR shall have two synchrotron light monitors (SLM) and one X-ray pin hole monitor01/27/2025In ProcessFALSE
- 6.04.06.04The longitudinal bunch profile monitor shall have a turn-by-turn capability based on a single bunch in the fully filled bunch train.01/27/2025In ProcessFALSE
- 6.04.06.04TThe SLM systems shall measure the crabbing angle, longitudinal bunch parameters, H & V beam size and global coupling.01/27/2025In ProcessFALSE
- 6.04.06.04The SLM shall be able to measure a crabbing angle of 12.5 mrad with accuracy of 10 %01/27/2025In ProcessFALSE
- 6.04.06.04The SLM shall be able to measure the Longitudinal bunch parameters with accuracy of TBD -01/27/2025In ProcessFALSE
- 6.04.06.04The SLM shall be able to measure the H & V beam size with accuracy of H=??
V=?? units01/27/2025In ProcessFALSE - 6.04.06.04The SLM shall be able to measure the Global coupling with accuracy of TBD -01/27/2025In ProcessFALSE
- 6.04.06.04One SLM port shall be located downstream of a dipole in an appropriate location in the ESR, exact location not critical.01/27/2025In ProcessFALSE
- 6.04.06.04The second SLM port shall be located in a complimentary location in the lattice to ensure all the necessary SLM measurements can be made. TBD -01/27/2025In ProcessFALSE
- 6.04.06.04The SLM light extraction port mirrors shall be good quality, having a surface finish better than 1/10 Lambda01/27/2025In ProcessFALSE
- 6.04.06.04The SLM light extraction port mirrors shall be water cooled to avoid image distortion.01/27/2025In ProcessFALSE
- 6.04.06.04There 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.01/27/2025In ProcessFALSE
- 6.04.06.04The locations of the SLM optical lab rooms shall be TBD -01/27/2025In ProcessFALSE
- 6.04.06.04The double-slit interferometer method shall be used to measure transverse beam size01/27/2025In ProcessFALSE
- 6.04.06.04The standard transverse resolution of an SLM using visible light shall be ~60 um01/27/2025In ProcessFALSE
- 6.04.06.04The resolution using the double-slit method shall equal to 10 um01/27/2025In ProcessFALSE
- 6.04.06.04A streak camera shall be used to measure the bunch longitudinal profiles01/27/2025In ProcessFALSE
- 6.04.06.04A position sensitive photo-diode will provide photon beam centroid information which shall supplement the orbit stability measurements by the BPMs01/27/2025In ProcessFALSE
- 6.04.06.04A GigE CCD/CMOS camera, externally triggerable with exposure times ranging from 10 nsec to 5 sec, shall be used to image the visible radiation01/27/2025In ProcessFALSE
- 6.04.06.04A 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.01/27/2025In ProcessFALSE
- 6.04.06.04The location of the X-ray pinhole monitoring system shall be TBD01/27/2025In ProcessFALSE
- 6.04.06.04The 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 um01/27/2025In ProcessFALSE
- 6.04.06.04The X-ray pin hole monitor shall provide independent measurement of the energy spread and horizontal/vertical emittance. H=V=15.4 nm01/27/2025In ProcessFALSE
- 6.04.06.04The X-ray pinhole photon beamline shall be equipped with gated cameras that will be employed to provide high resolution turn-by-turn profile measurements01/27/2025In ProcessFALSE
- 6.04.06.04A pinhole assembly including tungsten slits shall provide sufficient resolution to precisely measure the beam size01/27/2025In ProcessFALSE
- 6.04.06.04Several different size pinholes sizes shall be incorporated to allow easy alignment and measurements at different beam currents and energies.01/27/2025In ProcessFALSE
- 6.04.06.03Stripline kickers (H & V) shall be used to excite the beam so tunes can be measured using turn-by-turn BPM data.01/27/2025In ProcessFALSE
- 6.04.06.03The magnitude of the kick required for the horizontal kicker shall be TBD units01/27/2025In ProcessFALSE
- 6.04.06.03The magnitude of the kick required for the vertical kicker shall be TBD units01/27/2025In ProcessFALSE
- 6.04.06.03The kicker waveform (risetime and shape) requirements shall be TBD units01/27/2025In ProcessFALSE
- 6.04.06.03The location of the tune meter kicker striplines in the ESR shall be TBD units01/27/2025In ProcessFALSE
- 6.04.06.03The impedance of the kicker beamline device shall be approved by beam Physics.01/27/2025In ProcessFALSE
- 6.04.06.03Placeholder, Input needed TBD01/27/2025In ProcessFALSE
- 6.04.06.03Placeholder, Input needed TBD01/27/2025In ProcessFALSE
- 6.04.06.03The transverse feedback systems shall be capable of counteracting single-bunch rise times of 1 ms01/27/2025In ProcessFALSE
- 6.04.06.03The transverse slow feedback system bandwidth shall bs 10 Hz01/27/2025In ProcessFALSE
- 6.03.04The EIS Pre-Injector shall create bunches which meet the requirements set forth in [5.9].01/27/2025In ProcessFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04.02The Laser system requires a minimum voltage for electrical service 208 Vac02/04/2025On HoldFALSE
- 6.03.04.02The Laser power consumption shall be < 40 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be cooled by chillers which also use the laser system power02/04/2025On HoldFALSE
- 6.03.04.02The Laser cooling power shall not exceed 20 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be able to function in a clean room having an ambient temperature of 18 +/- 2 CO02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall have a repetition rate 0.623 MHz02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse shall have a temporal profile 1.5 to 2 nS02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall operate at a wavelength of 780 +/-5 tunability range nm02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be capable of generating a bunches having at least a spacing between bunches of <1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The Laser Shall have the ability to flip and filter the laser pulses02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse jitter rms shall not exceed <5 ps02/04/2025On HoldFALSE
- 6.03.04.02The laser pulse shall have a transverse truncated gaussian profile02/04/2025On HoldFALSE
- 6.03.04.02The laser (power differential received at the cathode?) in the laser OFF and ON conditions shall be >60 dB02/04/2025On HoldFALSE
- 6.03The EIS shall provide an electron beam with the RMS bunch momentum spreads at extraction which meet the ESR beam requirements as set forth in the MPT. [Document#:EIC-SEG-RSI-005]01/27/2025ApprovedFALSE
- 6.03.04The Diagnostic beamline section shall be able to measure the electron polarization using a suitable polarimeter01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04.02The Laser system requires a minimum voltage for electrical service 208 Vac02/04/2025On HoldFALSE
- 6.03.04.02The Laser power consumption shall be < 40 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be cooled by chillers which also use the laser system power02/04/2025On HoldFALSE
- 6.03.04.02The Laser cooling power shall not exceed 20 kW02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be able to function in a clean room having an ambient temperature of 18 +/- 2 CO02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall have a repetition rate 0.623 MHz02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse shall have a temporal profile 1.5 to 2 nS02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall operate at a wavelength of 780 +/-5 tunability range nm02/04/2025On HoldFALSE
- 6.03.04.02The Laser shall be capable of generating a bunches having at least a spacing between bunches of <1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The Laser Shall have the ability to flip and filter the laser pulses02/04/2025On HoldFALSE
- 6.03.04.02The Laser pulse jitter rms shall not exceed <5 ps02/04/2025On HoldFALSE
- 6.03.04.02The laser pulse shall have a transverse truncated gaussian profile02/04/2025On HoldFALSE
- 6.03.04.02The laser (power differential received at the cathode?) in the laser OFF and ON conditions shall be >60 dB02/04/2025On HoldFALSE
- 6.03.04The Pre-Injector separate diagnostic beam line section shall have 3 branches one with a Mott polarimeter & Faraday cup, one containing a connection to the cathode Laser and a line to a low energy beam dump.01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04The instrumentation in the diagnostic beam line shall have the capability to measure beam position, profile, bunch charge and beam halo.01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04To characterize and control the fresh bunches sent to the Mott polarimeter, the gun diagnostic beamline shall contain instrumentation to measure and control the profile, position, and charge of the beam.01/27/2025On HoldFALSE
- 6.03.04The Diagnostic beamline section shall have one Beam Profile Monitor and Wien Filter and an electrostatic bender before the Mott polarimeter and Faraday Cup.01/27/2025On HoldFALSE
- 6.03.04.02.06In the gun diagnostic line an electrostatic bend spin rotator (based on Illinois Univ. design, 1993) shall be used02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall include two High voltage power supplies and two HV cables02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the electron spin such that the direction after bending is horizontal02/04/2025On HoldFALSE
- 6.03.04.02.06When bending at 300 keV the system shall have a bend angle of 143 deg02/04/2025On HoldFALSE
- 6.03.04.02.06The system shall be able to bend the beam over the range of electron beam energies from 280 to 350 KeV02/04/2025On HoldFALSE
- 6.03.04The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.01/27/2025On HoldFALSE
- 6.03.04.02.06The E-gun charge measurement shall use a Mott polarimeter measurement technique.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall provide polarization measurements of 280-350 keV electron bunches with an accuracy >=2 %02/04/2025On HoldFALSE
- 6.03.04.02.06Right and left backscatter acquisition chains shall be incorporated in the design (e-detector, pre-amp, amp, and MCA)02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall be able to measure the polarization of the electron bunches from the gun.02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall read beam polarization over a repolarization range of 25 to 90 %02/04/2025On HoldFALSE
- 6.03.04.02.06Over the measurement range the Mott polarimeter shall be accurate to within a resolution of 2 %02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter system and electronics shall utilize ~11 kW, from one 208 Vac 3 phase @ 30 amps/phase circuit (It depends on Mott polarimeter design)02/04/2025On HoldFALSE
- 6.03.04.02.06The 280-350 keV Mott polarimeter shall have a bunch charge measurement range of 0.1 to 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Mott polarimeter shall function @ 18[C] (nom.) within a temperature stability +/- 2[C]supplied by the gun clean room02/04/2025On HoldFALSE
- 6.03.04.02.06Th polarimeter shall measure the bunch emittance by slit and beam viewer placed before the 143 deg bending dipole?02/04/2025On HoldFALSE
- 6.03.04The Faraday cup shall be able to measure the charge of the electron bunches from the gun.01/27/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup electronics shall require < 3 kW supplied from one 110 Vac, 20 Amp single chase circuit02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup shall be able to measure the charge of the electron bunches from the gun over a charge range of 0.1 - 14 nC02/04/2025On HoldFALSE
- 6.03.04.02.06The Faraday cup power dissipation shall be less that 1 W02/04/2025On HoldFALSE
- 6.03.04There shall be instrumentation capable of measuring the surface of the cathode if required.01/27/2025On HoldFALSE
- 6.03.04The laser beam shall illuminate the cathode perpendicular to the cathode face01/27/2025On HoldFALSE
- 6.03.04Following the DC gun, the electron bunch shall be deflected through a bending dipole into the Bunching section01/27/2025On HoldFALSE
- 6.03.042 solenoids shall be placed between the gun and the bending dipole into the bunching section capable of correcting the beam position.01/27/2025On HoldFALSE
- 6.03.04Provision shall be made for an appropriate number of air cored steering coils between the Gun and bunching section to correct the electron beam position as required.01/27/2025On HoldFALSE
- 6.03.04A bending dipole shall follow the Gun and be able to bend the beam from the gun into the bunching section OR bend separate electron bunches into the separate diagnostic beam line.01/27/2025On HoldFALSE
- 6.03.04The bending dipole after the gun shall also have the capability to deflect the beam enough to allow a laser to illuminate the photocathode head on.01/27/2025On HoldFALSE
- 6.03.04A minimum of three solenoids shall be placed between the gun and the first bunching cavity to maintain the beam size for 5Ð10 nC bunches01/28/2025On HoldFALSE
- 6.03.04Short air core trim coils shall be used to correct beam position for energies greater than 100 keV01/27/2025On HoldFALSE
- 6.03.04The Diagnostic beamline solenoids shall be capable of maintaining the beam size in the diagnostic line up to either the Faraday cup or the Mott polarimeter01/27/2025On HoldFALSE
- 6.03.04Beam tube shall be 4 in. Nominal? OD? using 6 in. Conflat flanges01/27/2025On HoldFALSE
- 6.03.04Vacuum system shall be compatible with UHV requirements.01/27/2025On HoldFALSE
- 6.03.04The Laser section shall be independent from the Gun\diagnostic section vacuum.01/27/2025On HoldFALSE
- 6.03.04The pre-injector electron gun shall produce all the bunch patterns required to deliver the ESR beam requirements set forth in [5.9].01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The pre-injector shall have a low energy transfer line from the gun into the beam compression "Bunching" section01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The low energy transfer line shall have an additional branch between the Gun and the Bunching section which can transfer individual electron bunches into the diagnostic beamline section.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The low energy transfer line shall have a laser port between the Gun and the Bunching section which will allow an optical path for the laser to illuminate the cathode face of the gun.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04Following the gun, there shall be multiple groups of magnets required to control the electron beam.01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04The gun shall have steering coils to direct the liberated electrons (These can be reused from the existing Gun system.)01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.04To characterize and control the fresh bunches the low energy transfer line from the Gun to the Buncher shall contain a plunging transverse profile monitor, a bunch charge monitor, beam loss monitors, and beam position monitors01/27/2025On HoldFALSE
- 6.03.04.02The e-Gun system requires a minimum electrical service 300\208 Amps\Vac02/04/2025On HoldFALSE
- 6.03.04.02The maximum power consumption required for the Gun systems should not exceed. 108 kVA02/04/2025On HoldFALSE
- 6.03.04.02The gun system shall be designed to operate in a Class 100 (ISO 5) clean room with its temperature maintained at 18 +/- 2 °C02/04/2025On HoldFALSE
- 6.03.04.02The gun vacuum shall be able to achieve and maintain <10-11 Torr02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 5&11GeV operation shall have a bunch charge of 7 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode for 18GeV operation shall have a bunch charge of 5 nC02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a initial bunch length (FWHM) of 1.6 ns02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a bunch Diameter(hard edge) within the range of 6-10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Longitudinal profile distribution which is flat02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Transverse Gaussian distribution with a σ of 6 to 10 mm02/04/2025On HoldFALSE
- 6.03.04.02The bunch parameters from the cathode shall have a Gun voltage in the range of 290 to 350 keV02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of generating four bunches with each bunch separated by at least 12.8295593046379 μs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall be capable of reproducing the entire 4 bunch pairs with a repetition rate of 1 Hz02/04/2025On HoldFALSE
- 6.03.04.02For 7[nC] bunches the average current from the gun shall be 56 nA02/04/2025On HoldFALSE
- 6.03.04.02For 5[nC] bunches the average current from the gun shall be 40 nA02/04/2025On HoldFALSE
- 6.03.04.02The electron gun design for pre-injector shall permit the exchange of the cathode in Approx 2 hrs02/04/2025On HoldFALSE
- 6.03.04.02The gun shall have an operational lifetime of >. 2 Wks02/04/2025On HoldFALSE
- 6.03.04.02Minimum e-Beam polarizationfrom gun shall be >85 %02/04/2025On HoldFALSE
- 6.03.03The transferred beam shall meet all the requirements of the circulating beam, for all operational modes of the ESR as set forth in [5.9].01/27/2025In ProcessFALSE
- 6.03.03For instrumentation purposes the high energy TL from the RCS to the ESR shall contain a number of strategically placed Beam Position Monitors at the quadrupoles and at the entry and exit of a number of the dipoles as required.01/27/2025In ProcessFALSE
- 6.03.03.04The BPM measurement resolution should be 100 um or less, for a bunch charge range of 100 pc to 28 nC. < 100 um01/27/2025In ProcessFALSE
- 6.03.03.04The BPM acquisition rate shall depend on the rate of transfer from RCS-to-ESR, expected twice per second. 2.5 uS01/27/2025In ProcessFALSE
- 6.03.03.04The number of BPMs in the RCS-to-ESR transport line shall be 10 ea01/27/2025In ProcessFALSE
- 6.03.03.04The BPMs shall be loca