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Hadron Storage Ring Requirements

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

Name
WBS
Description
Updated
Status
TBD
HSR : Hadron Storage Ring (WBS 6.02.03)

G-HSR.01
6.02.03
The range of unpolarized ion species currently produced by the Relativistic Heavy Ion Collider (RHIC) complex shall be preserved for Electron-Ion Collider (EIC) Hadron Storage Ring (HSR) operation (from deuterons to uranium) defined in the Master Parameter Table. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

G-HSR.02
6.02.03
The HSR shall deliver Protons bunches having at least a 70% polarization at full beam energy ready for collision.
02/09/2026
Approved
FALSE

G-HSR.03
6.02.03
The HSR shall deliver 3He bunches having at least a 70% polarization at full beam energy ready for collision.
02/09/2026
Approved
FALSE

G-HSR.04
6.02.03
Design of the Hadron storage ring shall allow the possibility of future operation with a polarized deuteron beam.
02/09/2026
Approved
FALSE

G-HSR.05
6.02.03
The HSR shall provide the capability to collide protons at beam energies of 41 GeV, and from 100 to 275 GeV.
02/09/2026
Approved
FALSE

G-HSR.06
6.02.03
The HSR shall provide the capability to collide 3He at beam energies of 41 GeV/nucleon, and from 100 to 183 GeV/nucleon.
02/09/2026
Approved
FALSE

G-HSR.07
6.02.03
The HSR shall provide the capability to collide electrons with Au ions at 41 GeV/nucleon and from 100 to 110 GeV/nucleon energies.
02/09/2026
Approved
FALSE

G-HSR.08
6.02.03
The HSR shall provide the capability to collide other ion species at a maximum energy equivalent to a beam rigidity Bρ value of 916.67 Tm.
02/09/2026
Approved
FALSE

G-HSR.09
6.02.03
The HSR shall provide the capability to vary the hadron revolution frequency to match it at different hadron energies (41 GeV/nucleon and 100 - 275 GeV/nucleon) with the revolution frequency of electron beam in the ESR.
02/09/2026
Approved
FALSE

G-HSR.10
6.02.03
The HSR Ion bunches shall meet the parameters specified for different species defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.11
6.02.03
The HSR shall be able to provide beams of required species for collision having the beam currents as specified in the MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

G-HSR.12
6.02.03
The HSR shall utilize a vacuum system capable of operating with peak and average beam current defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.13
6.02.03
The Relativistic Heavy Ion Collider (RHIC) lattice shall be preserved and where required modified for Electron Ion Collider (EIC) Hadron Storage Ring (HSR) operations defined in the Master Parameter Table (MPT). [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.14
6.02.03
The HSR shall have a instrumentation system to operate for all beam species which need monitoring and will, where possible utilize the existing RHIC instrumentation system.
02/09/2026
Approved
FALSE

G-HSR.15
6.02.03
All HSR components and systems shall be designed and installed in line with all relevant regulatory codes and in full compliance with BNL SBMS.
02/09/2026
Approved
FALSE

G-HSR.16
6.02.03
The HSR uptime shall be consistent with the overall uptime requirements of the EIC.
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

G-HSR.17
6.02.03
The HSR shall meet the beam parameters specified for different species at injection defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-HSR-INJ.01
6.02.03
The HSR injection system shall utilize the existing RHIC injector chain upstream of the RHIC-ATR D26 Dipole magnet with no modifications.
02/09/2026
Approved
FALSE

F-HSR-INJ.02
6.02.03
The HSR injection system, consisting of the transport beamline, septum magnet and injection kickers, shall be capable of transporting a maximum beam rigidity of 81.12Tm from the transport line to IR4 central area and injecting it into the HSR.
02/09/2026
Approved
FALSE

F-HSR-INJ.03
6.02.03
The HSR Injection System design shall use a warm transport line in arc 6-4 as continuation of the Injection line to transport the hadron beam to the injection system located in IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ.04
6.02.03
The HSR injection transport beamline shall be able to transport polarized beam with less than 5% polarization loss.
02/09/2026
Approved
FALSE

F-HSR-INJ.05
6.02.03
The HSR injection system shall be able to inject all beam species with less than 5% beam emittance increase.
02/09/2026
Approved
FALSE

F-HSR-INJ.06
6.02.03
The HSR injection system shall be able to fill the HSR with 290 consecutive bunches without interruption.
02/09/2026
Approved
FALSE

F-HSR-INJ.07
6.02.03
The HSR injection system shall be able to fill the HSR with one(1) bunch per AGS cycle for polarized proton, two(2) bunches per AGS cycle for ion beams.
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR-INJ.08
6.02.03
The HSR injection system transfer line shall provide the following physical aperture:
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

G-HSR.18
6.02.03
The HSR shall utilize an Injection system to provide the ability for single bunch transport and Injection at IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ-MAG.01
6.02.03
Any reused existing RHIC-ATR transfer line magnets shall meet the requirements of the new approved HSR Injection line lattice.
02/09/2026
Approved
FALSE

F-HSR-INJ-MAG.02
6.02.03
New magnets shall only be used where any available existing magnets do not meet the requirements of the new approved HSR Injection line lattice.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.01
6.02.03
The HSR injection kickers shall provide a half aperture greater than 10σ for the stored beam at Collison energies.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.02
6.02.03
The HSR injection kickers shall provide a half aperture greater than 7σ for the stored beam at injection energies.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.03
6.02.03
The HSR injection kickers shall provide a half aperture greater than 6σ for the injected beam.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.04
6.02.03
The HSR injection kicker system shall be able to deflect the injected beam to be on axis
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.05
6.02.03
The HSR injection kicker system shall be installed in the straight section of the IR4 area.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.06
6.02.03
The HSR injection kicker system shall be capable of single-bunch on-axis injection to fill the ring with 290 bunches.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.07
6.02.03
The HSR injection kicker system rise time shall be short enough so that it does not step on the previous bunch.
02/09/2026
Approved
FALSE

F-HSR-INJ-PP.08
6.02.03
The present RHIC injection kicker system including the Lambertson magnet and current injection kicker magnets at the 5 o’clock area shall be removed.
02/09/2026
Approved
FALSE

F-HSR-INJ-PS.01
6.02.03
The HSR Injection System magnets shall be fed by a system of power supplies matched in voltage and maximum current to the specifications and requirements of the respective magnets
02/09/2026
Approved
FALSE

F-HSR-INJ-VAC.01
6.02.03
The vacuum level in the HSR transport line shall be kept at the same level as in the current RHIC-ATR line.
02/09/2026
Approved
FALSE

F-HSR-INJ-VAC.02
6.02.03
A ~20m section of the warm injection beamline near the HSR including the injection septum shall have a vacuum pressure of ~1E-10 torr or better, after baking .
02/09/2026
Approved
FALSE

F-HSR-INJ.01
6.02.03
The HSR injection system shall utilize the existing RHIC injector chain upstream of the RHIC-ATR D26 Dipole magnet with no modifications.
02/09/2026
Approved
FALSE

F-HSR-INJ.02
6.02.03
The HSR injection system, consisting of the transport beamline, septum magnet and injection kickers, shall be capable of transporting a maximum beam rigidity of 81.12Tm from the transport line to IR4 central area and injecting it into the HSR.
02/09/2026
Approved
FALSE

F-HSR-INJ.03
6.02.03
The HSR Injection System design shall use a warm transport line in arc 6-4 as continuation of the Injection line to transport the hadron beam to the injection system located in IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ.04
6.02.03
The HSR injection transport beamline shall be able to transport polarized beam with less than 5% polarization loss.
02/09/2026
Approved
FALSE

F-HSR-INJ.05
6.02.03
The HSR injection system shall be able to inject all beam species with less than 5% beam emittance increase.
02/09/2026
Approved
FALSE

F-HSR-INJ.06
6.02.03
The HSR injection system shall be able to fill the HSR with 290 consecutive bunches without interruption.
02/09/2026
Approved
FALSE

F-HSR-INJ.07
6.02.03
The HSR injection system shall be able to fill the HSR with one(1) bunch per AGS cycle for polarized proton, two(2) bunches per AGS cycle for ion beams.
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR-INJ.08
6.02.03
The HSR injection system transfer line shall provide the following physical aperture:
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

G-HSR.19
6.02.03
The HSR shall utilize an RF system capable of operating over the parameters defined in MPT. [Document#:EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

G-HSR.20
6.02.04.02
The HSR shall have a control system which can operate the HSR consistent will the overall control of the other EIC system's and to ensure the HSR meets all the Physics requirements needed to deliver the physics goals of the EIC.
02/09/2026
Approved
FALSE

G-HSR.21
6.02.04.04
The HSR shall have a cryogenic system to cool and operate all elements which need cryogenic cooling and will, where possible utilize the existing RHIC cooling system.
02/09/2026
Approved
FALSE

G-HSR.22
TBD
The HSR collimation system shall provide passive protection for the hadron storage ring by localizing beam losses and reducing beam-induced backgrounds.
07/06/2026
Reviewed
FALSE

G-HSR.23
TBD
Collimator locations and optics shall be optimized using multi-turn particle tracking simulations to maximize loss localization and detector background reduction.
07/06/2026
Reviewed
FALSE

G-HSR.24
TBD
All HSR collimators shall be double-sided (two-jaw design) with tapered geometry to minimize impedance and wakefield effects.
07/06/2026
Reviewed
FALSE

G-HSR.25
TBD
The system shall be fully integrated with the machine protection system, beam instrumentation, accelerator control system, vacuum system, and cooling systems.
07/06/2026
Reviewed
FALSE

G-HSR.26
TBD
The number of collimators shall be minimized while maintaining required cleaning efficiency in order to reduce impedance and operational complexity.
07/06/2026
Reviewed
FALSE

G-HSR.27
TBD
The HSR beam abort system shall provide the capability to safely and rapidly remove the circulating hadron beam under abnormal or fault conditions in order to protect accelerator components, detectors, and personnel.
07/06/2026
In Process
FALSE

G-HSR.28
TBD
The system shall be designed as an integral part of the EIC Machine Protection System and shall operate in coordination with MPS permits, interlocks, and timing infrastructure.
07/06/2026
In Process
FALSE

G-HSR.29
TBD
The system shall include abort kicker magnets, pulsed power systems, an extraction and beam transport system, and a beam dump assembly with appropriate shielding, cooling, and diagnostics.
07/06/2026
In Process
FALSE

G-HSR.30
TBD
The system shall support reuse and refurbishment of the existing RHIC beam dump assembly, including required modifications to meet EIC performance, reliability, and radiation safety requirements.
07/06/2026
In Process
FALSE

G-HSR.31
TBD
The system shall be integrated with the accelerator lattice and facility layout, ensuring compatibility with optics, available space, and interfaces to adjacent systems, including flexibility for relocation if required.
07/06/2026
In Process
FALSE

G-HSR.32
TBD
The system shall be designed to achieve high operational availability, maintainability, and reliability.
07/06/2026
In Process
FALSE

F-HSR.01
6.02.03
The HSR proton beam shall be ramped from injection energy to a maximum collision energy of 275 GeV.
02/09/2026
Approved
FALSE

F-HSR.02
6.02.03
The HSR shall be designed for changing beam optics between the injection configuration to collision configuration with beam in the machine.
02/09/2026
Approved
FALSE

F-HSR.03
6.02.03
The HSR beam at collision energies shall be synchronized to the revolution frequency of the electron beam.
02/09/2026
Approved
FALSE

F-HSR.04
6.02.03
The HSR systems shall provide the capability to operate with a radial shift, having a full range of +/-21 (mm) beam orbit in all arcs.
02/09/2026
Approved
FALSE

F-HSR.05
6.02.03
The HSR systems shall operate with a vertical orbit excursion having a full range of +/-2 (mm) beam orbit in all arcs.
02/09/2026
Approved
FALSE

F-HSR.06
6.02.03
The HSR decoupling system shall provide the capability to maintain a flat beam with the required beam size ratios.
02/09/2026
Approved
FALSE

F-HSR.07
6.02.03
The HSR orbit tune chromaticity correction, nonlinear correction and gamma-T jump systems, shall be provided with the same capability as in the present RHIC machine.
02/09/2026
Approved
FALSE

F-HSR.08
6.02.03
The HSR shall provide a dynamic aperture greater than 6σ under colliding beam conditions.
02/09/2026
Approved
FALSE

F-HSR.09
6.02.03
The physical aperture for the circulating hadron beam at the store energies shall be greater than 10σ in the horizontal and vertical planes.
02/09/2026
Approved
FALSE

F-HSR.10
6.02.03
The physical aperture for the circulating hadron beam at the injection energy shall be greater than 7σ in the horizontal and 6σ in the vertical plane in all locations, for normalized beam emittance of 2.5 um.
02/09/2026
Approved
FALSE

F-HSR.11
6.02.03
The physical aperture for the circulating hadron beam at the injection energy in the beam dump beam pipe shall be greater than 6σ in the horizontal and vertical planes.
02/09/2026
In Process
FALSE

F-HSR.12
6.02.03
The apertures of the downstream, near-IR magnets, within the IR hadron lattice, shall be large enough to transport a 4 mrad cone of neutral particles from the IP without obstruction.
02/09/2026
Approved
FALSE

F-HSR.13
6.02.03
The apertures of the forward side near-IR magnets, within the IR hadron lattice, shall be large enough to transport particles having a transverse momentum of up to 1.3 GeV/c with a 275GeV proton beam without obstruction.
02/09/2026
Approved
FALSE

F-HSR.14
6.02.03
The apertures of the forward side, near-IR magnets, within the IR hadron lattice, shall accommodate off beam-axis detectors which can detect forward scattered protons with a transverse momentum of 0.2GeV to 1.3GeV at a proton beam energy of 275GeV.
02/09/2026
Approved
FALSE

F-HSR.15
6.02.03
At the store energies the vacuum chamber shall provide sufficient horizontal and vertical aperture to accommodate, a +/-10 sigma beam, where the vertical RMS beam size is based on the emittance of a fully coupled beam. In the arcs an additional 20 mm horizontally and 2 mm vertically shall be included to account for the radially shifted beam and orbit errors.
02/09/2026
Approved
FALSE

F-HSR.16
6.02.03
The HSR alignment requirements are established by dynamic aperture and polarization tracking. The HSR RMS alignment tolerances shall be such that all the beam parameters listed in the MPT can be satisfied. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR.17
6.02.03
The operational availability design target for the HSR shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements Document. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR.18
6.02.03
The HSR shall deliver spin polarized ion beams with store-averaged polarization of at least 70 percent at collision.
02/09/2026
Approved
FALSE

F-HSR.19
6.02.03
The HSR lattice shall have features to preserve the polarization from injection to collision energies.
02/09/2026
Approved
FALSE

F-HSR.20
6.02.03
The HSR lattice will utlise RHIC snakes and spin rotators to control the hadron spin.
02/09/2026
Approved
FALSE

F-HSR.21
6.02.03
The HSR shall be capable of delivering bunches with longitudinal spins to the IP.
02/09/2026
Approved
FALSE

F-HSR.22
6.02.03
The HSR Lattice shall contain provisions for correctors such as horizontal and vertical dipole correctors, skew quadrupoles, octupoles, etc. as needed.
02/09/2026
Approved
FALSE

HSR-ARC : Hadron Storage Ring ARC Sector (WBS 6.02.03)

HSR-CRYO : Hadron Storage Ring Cryogenic System (WBS 6.02.03)

HSR-INJ : HSR Hadron Ring Injection System (WBS 6.02.03)

F-HSR-INJ.08.01
6.02.03
The HSR injection line magnets excluding the induction septum shall provide a half physical aperture greater than 6σ for the injected beam.
02/09/2026
Approved
FALSE

F-HSR-INJ.08.02
6.02.03
The HSR induction septum shall provide a half physical aperture greater than 5σ for the injected beam.
02/09/2026
Approved
FALSE

F-HSR-INJ.08.03
6.02.03
The HSR induction septum shall provide a half physical aperture greater than 6σ for the circulating beam.
02/09/2026
Approved
FALSE

HSR-INJ EXTERNALS
Requirements who's parents are in other sub-systems.

F-HSR-INJ.01
6.02.03
The HSR injection system shall utilize the existing RHIC injector chain upstream of the RHIC-ATR D26 Dipole magnet with no modifications.
02/09/2026
Approved
FALSE

F-HSR-INJ.02
6.02.03
The HSR injection system, consisting of the transport beamline, septum magnet and injection kickers, shall be capable of transporting a maximum beam rigidity of 81.12Tm from the transport line to IR4 central area and injecting it into the HSR.
02/09/2026
Approved
FALSE

F-HSR-INJ.03
6.02.03
The HSR Injection System design shall use a warm transport line in arc 6-4 as continuation of the Injection line to transport the hadron beam to the injection system located in IR4.
02/09/2026
Approved
FALSE

F-HSR-INJ.04
6.02.03
The HSR injection transport beamline shall be able to transport polarized beam with less than 5% polarization loss.
02/09/2026
Approved
FALSE

F-HSR-INJ.05
6.02.03
The HSR injection system shall be able to inject all beam species with less than 5% beam emittance increase.
02/09/2026
Approved
FALSE

F-HSR-INJ.06
6.02.03
The HSR injection system shall be able to fill the HSR with 290 consecutive bunches without interruption.
02/09/2026
Approved
FALSE

F-HSR-INJ.07
6.02.03
The HSR injection system shall be able to fill the HSR with one(1) bunch per AGS cycle for polarized proton, two(2) bunches per AGS cycle for ion beams.
02/09/2026
Approved
FALSE

F-HSR-INJ.08
6.02.03
The HSR injection system transfer line shall provide the following physical aperture:
02/09/2026
Approved
FALSE

F-HSR-INJ.09
6.02.03
The operational availability design target for the HSR Injection System shall be consistent with the operational availability target for the overall EIC as set forth in Electron-Ion Collider Global Requirements. Refer to [EIC-ORG-PLN-010].
02/09/2026
Approved
FALSE

F-HSR-INJ.10
6.02.03
The HSR Injection system transport line shall be modified to add septum magnets in the Q3-Q4 warm straight section of the HSR on 4 o’clock side of the IR4 for hadron beam transfer into the HSR beam pipe.
02/09/2026
Approved
FALSE

HSR-INJ-GIRDER : HSR Hadron Ring Injection Magnet Girders (WBS 6.02.02.03.03)

HSR-INJ-PP : Hadron Storage Ring Injection System Pulsed Power (WBS 6.02.03)

HSR-INJ-MAG : HSR Hadron Ring Injection Magnets (WBS 6.02.03.03)

HSR-INJ-MAG-DV1 : HSR Injector Magnet D1 (WBS 6.02.03.03.01)

HSR-INJ-MAG-DW0 : HSR Injector Magnet D2 (WBS 6.02.03.03.01)

HSR-INJ-MAG-CHV1 : HSR Injector Magnet Ver Corr (WBS 6.02.03.03.02)

HSR-INJ-MAG-CHV2 : HSR Injector Magnet DVERT_1 (WBS 6.02.03.03.02)

HSR-INJ-MAG-Q:100 : HSR Injector Magnet Q2 (WBS 6.02.03.03.03)

HSR-INJ-MAG-QD1 : HSR Injector Magnet QD1 (WBS 6.02.03.03.03)

HSR-INJ-MAG-QD2 : (WBS 6.02.03.03.03)

HSR-INJ-MAG-QLA:100 : HSR Injector Magnet Q3 (WBS 6.02.03.03.03)

HSR-INJ-MAG-YQ1 : (WBS 6.02.03.03.03)

HSR-INJ-MAG-Q:50 : HSR Injector Magnet Q2 (WBS 6.02.03.03.04)

HSR-INJ-MAG-Q:60 : (WBS 6.02.03.03.04)

HSR-INJ-MAG-Q:80 : (WBS 6.02.03.03.04)

HSR-INJ-MAG-GIRDER

P-HSR-INJ-MAG-GIRDER.01
6.02.02.03.03
Within a girder, the as-installed magnet-to-magnet alignment shall be +/-400 (µm) in horizontal and vertical after installation and smoothing.
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.02
6.02.02.03.03
The first natural frequency of the installed magnet–girder assembly (movers locked) shall be ≥ 20 (Hz).
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.03
6.02.02.03.03
The natural frequency of the installed magnet–girder assembly (movers locked) shall be avoid 60 (Hz).
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.04
6.02.02.03.03
The girder alighment mechanism shall provide a minimum roll and pitch range of ± 200 (µrad) .
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.05
6.02.02.03.03
The girder assembly and its anchors shall be designed and anchored in accordance with ASCE/SEI 7 using the Site Design Spectral Acceleration (SDS) and S1 parameters. Under the Operating Basis Earthquake (OBE), the assembly shall require no repositioning. Under the Safe Shutdown Earthquake (SSE), the assembly shall experience no structural failure, and any residual misalignment shall be recoverable within the installed alighnment range.
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.06
6.02.02.03.03
Ancillary equipment on/near the girder shall be mechanically isolated via compliant brackets and service loops, maintain clearances to fiducials/adjusters and be included in modal/vibration analysis.
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.07
6.02.02.03.03
Piping (process/cooling/cryo) and electrical conduits/trays shall be supported by dedicated, isolated brackets, maintain clearances to fiducials/adjusters and be included in modal/vibration analysis.
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.08
6.02.02.03.03
The girder body material shall be construted of material that provides high damping and stiffness with corrosion-protected per tunnel environment.
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.09
6.02.02.03.03
The girder assembly, including leveling screws, top plates, and anchors, shall support the total installed service mass under worst-case operating load.
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.10
6.02.02.03.03
The girder rigging features (lift eyes, CG marks) shall be provided and proof-load tested at 1.25× lifted mass.
04/23/2026
Approved
FALSE

P-HSR-INJ-MAG-GIRDER.11
6.02.02.03.03
The girder shall be designed for a minimum service life of 30 years, accounting for creep, fatigue, and corrosion.
04/23/2026
Approved
FALSE

HSR-INJ-MAG-Q50

HSR-INJ-MAG-Q60

HSR-INJ-MAG-Q80

HSR-INJ-PS : HSR Hadron Ring Injection Power Supplys (WBS 6.02.03.04)

HSR-INJ-PS-CHV1 : HSR Injector Power supply Vert Corr (WBS 6.02.03.04)

P-HSR-INJ-PS-CHV1.01
A single CHV1 power supply shall be capable of powering either the Vertical plane or the Horizontal plane of the HSR INJ CHV1 corrector. (Two power supplies are required to independently power each plane).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.02
The CHV1 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.03
The CHV1 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.04
The CHV1 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.06.01
The CHV1 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 1000(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.07
The CHV1 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.08
The CHV1 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.08.01
The CHV1 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.09
The CHV1 power supply shall limit current ripple (Pk-Pk) to 1000(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.09.01
The CHV1 power supply shall limit current ripple (Pk-Pk) to 1000(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV1.10
The CHV1 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-CHV2 : HSR Injector Power supply Hor Corr (WBS 6.02.03.04)

P-HSR-INJ-PS-CHV2.01
A single power CHV2 supply shall be capable of powering either the Vertical plane or the Horizontal plane of the HSR INJ CHV2 corrector. (Two power supplies are required to independently power each plane).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.02
The CHV2 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.03
The CHV2 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.04
The CHV2 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.06.01
The CHV2 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 1000(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.07
The CHV2 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.08
The CHV2 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.08.01
The CHV2 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.09
The CHV2 power supply shall limit current ripple (Pk-Pk) to 1000(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.09.01
The CHV2 power supply shall limit current ripple (Pk-Pk) to 1000(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-CHV2.10
The CHV2 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-DV1 : HSR Injector Power supply D3 (WBS 6.02.03.04)

P-HSR-INJ-PS-DV1.01
The magnet model being powered shall be the HSR INJ MAGNET DV1
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.02
The DV1 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.03
The DV1 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.04
The DV1 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.06.01
The DV1 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.07
The DV1 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.08
The DV1 power supply synchronization timing of 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.08.01
The DV1 power supply setpoint and all the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.09
The DV1 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.09.01
The DV1 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DV1.10
The DV1 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-DW0 : HSR Injector Power supply D4 (WBS 6.02.03.04)

P-HSR-INJ-PS-DW0.01
The magnet model being powered shall be the HSR INJ MAGNET DW0
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.02
The DW0 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.03
The DW0 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.04
The DW0 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.06.01
The DW0 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.07
The DW0 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.08
The DW0 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.08.01
The DW0 power supply setpoint and all the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.09
The DW0 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.09.01
The DW0 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-DW0.10
The DW0 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-Q:100 : (WBS 6.02.03.04)

P-HSR-INJ-PS-Q:100.01
The magnet model being powered shall be the HSR INJ MAGNET Q:100
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.02
The Q:100 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.03
The Q:100 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.04
The Q:100 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.06.01
The Q:100 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.07
The Q:100 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.08
The Q:100 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.08.01
The Q:100 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.09
The Q:100 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.09.01
The Q:100 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:100.10
The Q:100 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-Q:50 : HSR Injector Power supply Q1 (WBS 6.02.03.04)

P-HSR-INJ-PS-Q:50.01
The magnet model being powered shall be the HSR INJ MAGNET Q:50
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.02
The Q:50 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.03
The Q:50 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.04
The Q:50 power supply shall provide an DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.06.01
The Q:50 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.07
The Q:50 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.08
The Q:50 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.08.01
The Q:50 power supply setpoint and all the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.09
The Q:50 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.09.01
The Q:50 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:50.10
The Q:50 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-Q:60 : HSR Injector Power supply Q2 (WBS 6.02.03.04)

P-HSR-INJ-PS-Q:60.01
The magnet model being powered shall be the HSR INJ MAGNET Q:60
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.02
The Q:60 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.03
The Q:60 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.04
The Q:60 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.06.01
The Q:60 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.07
The Q:60 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.08
The Q:60 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.08.01
The Q:60 power supply setpoint and all the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.09
The Q:60 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.09.01
The Q:60 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:60.10
The Q:60 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-Q:80 : HSR Injector Power supply Q3 (WBS 6.02.03.04)

P-HSR-INJ-PS-Q:80.01
The magnet model being powered shall be the HSR INJ MAGNET Q:80
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.02
The Q:80 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.03
The Q:80 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.04
The Q:80 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.06.01
The Q:80 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.07
The Q:80 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.08
The Q:80 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.08.01
The Q:80 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.09
The Q:80 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.09.01
The Q:80 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-Q:80.10
The Q:80 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-QD1 : HSR Injector Power supply QD1 (WBS 6.02.03.04)

P-HSR-INJ-PS-QD1.01
The magnet model being powered shall be the HSR INJ MAGNET QD1
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.02
The QD1 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.03
The QD1 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300 (V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.04
The QD1 power supply shall provide DC current .
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.04.01
The power supply shall supply the nominal current required by HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196] .
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.04.02
The power supply shall supply the nominal current required with an additional current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.06.01
The QD1 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.07
The QD1 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.08
The QD1 power supply synchronization timing shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.08.01
The QD1 power supply setpoint and all the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.09
The QD1 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.09.01
The QD1 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD1.11.02
The QD1 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-QD2 : (WBS 6.02.03.04)

P-HSR-INJ-PS-QD2.01
The magnet model being powered shall be the HSR INJ MAGNET QD2
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.02
The QD2 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.03
The QD2 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.04
The QD2 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.06.01
The QD2 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.07
The QD2 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.08
The QD2 power supply synchronization timing of 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.08.01
The QD2 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.09
The QD2 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.09.01
The QD2 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QD2.10
The QD2 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-QLA:100 : (WBS 6.02.03.04)

P-HSR-INJ-PS-QLA:100.01
The magnet model being powered shall be the HSR INJ MAGNET QLA:100
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.02
The QLA:100 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.03
The QLA:100 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.04
The QLA:100 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.06.01
The QLA:100 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.07
The QLA:100 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.08
The QLA:100 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.08.01
The QLA:100 power supply setpoint and all of the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.09
The QLA:100 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.09.01
The QLA:100 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-QLA:100.10
The QLA:100 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-PS-YQ1 : (WBS 6.02.03.04)

P-HSR-INJ-PS-YQ1.01
The magnet model being powered shall be the HSR INJ MAGNET YQ1
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.02
The YQ1 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR INJ Magnet String Design Configuration [EIC-SEG-RSI-196]]
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.03
The YQ1 power supply during operation shall limit the maximum voltage of the magnet-to-ground to less than 300(V).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.04
The YQ1 power supply shall provide a DC current.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.04.01
The power supply shall include the current tuning margin of 10%.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.06.01
The YQ1 power supply long-term stability (1 second to 10 hours) at maximum operating current shall be 200(ppm).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.07
The YQ1 power supply shall provide a minimal current setpoint resolution of 16(Bit).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.08
The YQ1 power supply synchronization timing of synchronization shall be 100(us).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.08.01
The YQ1 power supply setpoint and all the PS analog readbacks shall be synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.09
The YQ1 power supply shall limit current ripple (Pk-Pk) to 100(ppm) of full-scale current in the 0–1 k(Hz) range.
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.09.01
The YQ1 power supply shall limit current ripple (Pk-Pk) to 200(ppm) of full scale current greater than 1k(Hz).
07/06/2026
Approved
FALSE

P-HSR-INJ-PS-YQ1.10
The YQ1 rack mounted power supply and its controls rack shall be designed to be cooled and sustained at an operational temperature range of +23.9(C) +/- 1.7(C).
07/06/2026
Approved
FALSE

HSR-INJ-INST : HSR Hadron Ring Injection Instrumentation System (WBS 6.02.03.05.07)

F-HSR-INJ-INST.01
6.02.03
The HSR injection line shall have Beam instrumentation to monitor the following beam parameters: beam orbit, beam current, beam transverse sizes, beam loss rate.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.02
6.02.03
Beam instrumentation shall be capable of providing operational data in the injection configuration for all the species and energies given in MPT. [Document: EIC-SEG-RSI-005]
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.03
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use existing BPMs with the same requirements as the existing RHIC-ATR BPMs.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.04
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall use HSR BPM electronics for the Injection line BPMs.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.05
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use the existing Phosphor screen beam profile monitors with the same requirements as existing in the RHIC-ATR Phosphor screen beam profile monitors.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.06
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use the existing Current transformers with the same requirements as existing in the RHIC-ATR Current transformers.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.07
6.02.03
The new warm transfer line from the RHIC-ATR to the HSR shall re-use the existing Beam loss monitors with the same requirements as existing in the RHIC-ATR Beam loss monitors.
02/09/2026
Approved
FALSE

F-HSR-INJ-INST.08
6.02.04.02
The new warm transfer line from the RHIC-ATR to the HSR shall have strategically placed chipmunks for radiation control.
02/09/2026
Approved
FALSE

HSR-INJ-INST-BC : HSR ATR Instrumentation Beam Charge Monitor (WBS 6.05.05.02)

P-HSR-INJ-INST-BC.01
6.02.03.05.07
The HSR Injection beamline bunch charge monitors shall measure single bunches over the measurement range up to 44 (nC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.02
6.02.03.05.07
The HSR Injection beamline bunch charge monitors shall have a measurement resolution of at least 100 (pC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.03
6.02.03.05.07
The HSR Injection beamline bunch charge monitor shall be capable of charge measurements for bunch lengths between 40 to 150 (cm) (rms).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.04
6.02.03.05.07
The HSR Injection beamline bunch charge monitor measurement shall vary less than +/- 0.1 (%) per mm of beam offset within half of the beamline aperture for charges greater than 5 (nC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.05
6.02.03.05.07
The HSR Injection beamline bunch charge monitor system measurement accuracy shall vary less than +/- 5 (%) shot to shot for bunches greater than 5 (nC).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.06
6.02.03.05.07
The HSR Injection beamline bunch charge monitor sensor shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.07
6.02.03.05.07
The HSR Injection beamline bunch charge monitor system shall have a remote controlled self calibration system.
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.08
6.02.03.05.07
The HSR Injection beamline bunch charge monitor calibration system shall be capable of providing pulses with a defined charge value that has greater than +/- 2 (%) accuracy.
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.09
6.02.03.05.07
The HSR Injection beamline bunch charge monitor shall provide bunch charge measurements at a rate less than 5 (Hz).
02/09/2026
Approved
FALSE

P-HSR-INJ-INST-BC.10
6.02.03.05.07
The HSR Injection beamline bunch charge monitor shall be a radiation hardened device.
02/09/2026
Approved
FALSE

HSR-INJ-INST-BLM : HSR ATR Instrumentation Beam Loss Monitors (WBS 6.05.05.02)

HSR-INJ-INST-BPM : HSR ATR Instrumentation Beam Position Monitor (WBS 6.05.05.02)

HSR-INJ-INST-PM : HSR ATR Instrumentation Profile Monitor (WBS 6.05.05.02)

HSR-INJ-VAC : HSR Hadron Ring Injection Vacuum System (WBS 6.02.03.06.06)

HSR-INJ-PPD : HSR Hadron Ring Injection Pulsed Power Devices System (WBS 6.02.03.11.01)

HSR-INJ-PPD-MAG_SL_KICK : HSR Injector Pulsed power Stripline kicker (WBS 6.02.03.11.01)

P-HSR-INJ-PPD-MAG_SL_KICK.1
6.02.03.11.01
The kicker location shall be in the HSR IR4 straight section.
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.2
6.02.03.11.01
The kickers shall fit within the given slot width of TBD (m)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.3
6.02.03.11.01
The kickers shall fit within the given slot length of 20 (m). (this includes the bellows length)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.4
6.02.03.11.01
The kickers shall fit within the given slot heignt of TBD (m)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.5
6.02.03.11.01
The number of kickers shall be 16
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.6
6.02.03.11.01
The kicker striplines shall maintain a minimum horizontal half aperture of TBD (cm)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.7
6.02.03.11.01
The rise time shall be <9 (nS)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.8
6.02.03.11.01
The fall time shall be less than <1 us
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.9
6.02.03.11.01
The flat top time shall be longer than 2x the transit time(~6nS) in addition to the pulse width(~25nS) through the kicker, so a flat top of longer than ~35nS is required.
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.10
6.02.03.11.01
The flat top repeatability shall be (+/-) 1 %
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.11
6.02.03.11.01
The uniformity of the flattop shall be (+/-) 1 %
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.12
6.02.03.11.01
The total deflecting angle for all kickers shall be 0.61 (mRad)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.13
6.02.03.11.01
The burst mode rep rate spec shall be 2 pulses sepearted by 200mS every 5(S)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.14
6.02.03.11.01
The maximum kicker voltage shall be +/-22000 (Volts), 44000V across both kickers.
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.15
6.02.03.11.01
The Kicker characteristic impedance shall 50(ohms)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.16
6.02.03.11.01
The kicker shall be air cooled
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG_SL_KICK.17
6.02.03.11.01
The jitter of the rise time between the positive and negative voltage shall be less than 2(nS)
02/09/2026
In Process
FALSE

HSR-INJ-PPD-PS_SL_KICK : HSR Injector Pulsed power Power Supply Stripline kicke (WBS 6.02.03.11.01)

HSR-INJ-PPD-MAG

HSR-INJ-PPD-MAG-DCSPTM

P-HSR-INJ-PPD-MAG-DCSPTM.01
6.02.03.11.03
The magnet shall be a single function DC Septum with vertical Dipole field.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.02
6.02.03.11.03
The physical magnet length shall be 2.5 (m)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.03
6.02.03.11.03
The Septum thickness shall be less than or equal to 21.2 (mm), inclusive of beampipe wall thicknesses, and be able to accommodate the transferline beampipe.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.04
6.02.03.11.03
The magnet shall be designed to fit within the following constraints:
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.04.01
6.02.03.11.03
The magnet shall fit within an envelope of 3.1 m L X 0.6 m W X 1.8 m H
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.04.02
The magnet pole gap height and width shall be H=27.432 (mm), W=128.803(mm)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.05
6.02.03.11.03
The final magnet assembly position and alignment values with respect to the nominal beam position and axis shall be within the following limits: (Note: Z is along the beam axis)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.05.01
6.02.03.11.03
The magnet install center displacment (wrt the nominal magnet center position) Displacment in dX=+/-150(um) Displacment in dY=+/-150(um) Displacment in dZ= +/-150(um)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.05.02
6.02.03.11.03
Magnet install rotational alignment (wrt the nominal beam Axis) Rotational about X=+/-0.1 (mrad) Rotational about Y=+/-0.1 (mrad) Rotational about Z=+/-0.2 (mrad)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.06
6.02.03.11.03
The Integrated Dipole Field BL shall provide a deflection angle of at least ~27 mrad with a peak field in the magnet is held below 1 T.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.08
6.02.03.11.03
The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.08.01
6.02.03.11.03
Field center displacement (wrt the physical magnet center) Displacement in X= +/-50 (um) Displacement in Y= +/-50 (um) Displacement in Z= +/-50 (um)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.08.02
6.02.03.11.03
Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.1(mrad) Rotational about Y=+/-0.1(mrad) Rotational about Z=+/-0.2(mrad)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.09
6.02.03.11.03
The magnet shall be designed to meet the following field quality\multipole requirements.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.09.01
6.02.03.11.03
The harmonic reference radius at which the field quality shall be measured is 25 mm
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.09.02
6.02.03.11.03
The field (Bref) or design energy or beam rigidity for which the field quality shall be measured are 52.03 and 81.12 Tm
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10
6.02.03.11.03
The magnet shall have the following Multipole content or dB/B within the specified measurement volumes
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.01
6.02.03.11.03
b1 = 10000, a1 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.02
6.02.03.11.03
b2 <(+\-)10, a2 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.03
6.02.03.11.03
b3 <(+\-)10, a3 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.04
6.02.03.11.03
b4 <(+\-)10, a4 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.05
6.02.03.11.03
b5 <(+\-)10, a5 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.06
6.02.03.11.03
b6 <(+\-)10, a6 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.07
6.02.03.11.03
b7 <(+\-)10, a7 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.08
6.02.03.11.03
b8 <(+\-)10, a8 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.09
6.02.03.11.03
b9 <(+\-)10, a9 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.10
6.02.03.11.03
b10 <(+\-)10, a10 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.11
6.02.03.11.03
b11 <(+\-)10, a11 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.12
6.02.03.11.03
b12 <(+\-)10, a12 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.13
6.02.03.11.03
b13 <(+\-)10, a13 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.14
6.02.03.11.03
b14 <(+\-)10, a14 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.15
6.02.03.11.03
b15 <(+\-)10, a15 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.10.16
6.02.03.11.03
b16 <(+\-)10, a16 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.11
6.02.03.11.03
The magnet fringe field shall not exceed 10 Gauss on the path of the circulating beam in HSR
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.12
6.02.03.11.03
The magnet field shall have a field homogeneity of better than 1x10-3
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.13
6.02.03.11.03
The Magnet-Cross-talk from the DC septum on the HSR circulating beam shall be less than 1x10-3, with respect to the main field on injected beam.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.14
6.02.03.11.03
The magnet shall be designed with components capable to withstand a radiation dose of 1 Mgy
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-DCSPTM.15
6.02.03.11.03
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >30 Years
04/08/2026
In Process
FALSE

HSR-INJ-PPD-MAG-HSLK

P-HSR-INJ-PPD-MAG-HSLK.1
6.02.03.11.01
The kickers shall be horizontal stripline kickers
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.2
6.02.03.11.01
The kicker location shall be in the HSR IR4 straight section.
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.3
6.02.03.11.01
The kickers shall fit within a slot length of 21.5 (m), which includes the bellows length.
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.4
6.02.03.11.01
The kickers shall fit within an overall slot height and width that prevents inteference with the ESR beamline
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.5
6.02.03.11.01
The kickers install center and install alignment must be within a translational value of +/- 100 (um) and a rotational alignment value of +/- 0.2 (mrad).
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.6
6.02.03.11.01
The kicker striplines shall maintain a minimum horizontal full aperture of 59 mm
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.7
6.02.03.11.01
The total deflecting angle for the sum of all kickers shall be 0.7 (mrad)
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.8
6.02.03.11.01
The Kicker characteristic impedance shall be 50 ohms
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.9
6.02.03.11.01
The maximum kicker voltage shall be +/- 22,000 Volts, 44,000 Volts across both kickers
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.10
6.02.03.11.01
The field variation between kicker modules shall be less than 1%
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.11
6.02.03.11.01
The kickers electric field shall have a field homogeneity of better than 5E-3 across X and Y dimensions in the center of the kicker
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.12
6.02.03.11.01
The voltage rise time (2–98% of full-scale amplitude) shall be < 9 ns
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.13
6.02.03.11.01
The voltage fall time (98–2% of full-scale amplitude) shall be less than < 1 us
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.14
6.02.03.11.01
The flat top time shall be longer than 35 ns.
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.15
6.02.03.11.01
The flat top repeatability shall be (+/-) 1 %
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.16
6.02.03.11.01
The uniformity of the flattop shall be (+/-) 1 %
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.17
6.02.03.11.01
The burst mode shall support a repetition rate of 4 pulses separated by 100 ms repeated every AGS cycle
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.18
6.02.03.11.01
The jitter of the rise time between the positive and negative voltage shall be less than (+/-) 0.5 ns
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.19
6.02.03.11.01
The jitter of the rise time between all kicker modules shall be less than (+/-) 0.5 ns
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.20
6.02.03.11.01
The kicker electrodes shall be electrically conductive to meet the required coupling impedance
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.21
6.02.03.11.01
The kicker electrode shall be coated with a material appropriate to minimize electron cloud effects
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.22
6.02.03.11.01
The magnet shall be designed with components capable to withstand a radiation dose of 1 Mgy
04/08/2026
Reviewed
FALSE

P-HSR-INJ-PPD-MAG-HSLK.23
6.02.03.11.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >30 Years
04/08/2026
Reviewed
FALSE

HSR-INJ-PPD-MAG-INDSPTM

P-HSR-INJ-PPD-MAG-INDSPTM.01
6.02.03.11.02.01.01
The magnet shall be a single function Induction Septum with vertical Dipole field.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.02
6.02.03.11.02.01.01
The physical magnet length shall be shall be shall be 1.3 (m)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.03
6.02.03.11.02.01.01
The Septum thickness shall be less than or equal to 4 (mm), inclusive of beampipe wall thicknesses, and be able to accommodate the transferline beampipe.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.04
6.02.03.11.02.01.01
The magnet shall be designed to fit within the following constraints:
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.04.01
6.02.03.11.02.01.01
The magnet pole gap height and width shall be H=XX (mm), W=XX(mm)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.04.02
6.02.03.11.02.01.01
The magnet's circulating beampipe shall be circular with an aperture of ~67 (mm)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.05.00
6.02.03.11.02.01.01
The final magnet assembly position and alignment values with respect to the nominal beam position and axis shall be within the following limits: (Note: Z is along the beam axis)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.05.01
6.02.03.11.02.01.01
The magnet install center displacment (wrt the nominal magnet center position) Displacment in dX=+/-150(um) Displacment in dY=+/-150(um) Displacment in dZ= +/-150(um)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.05.02
6.02.03.11.02.01.01
Magnet install rotational alignment (wrt the nominal beam Axis) Rotational about X=+/-0.1 (mrad) Rotational about Y=+/-0.1 (mrad) Rotational about Z=+/-0.2 (mrad)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.06
6.02.03.11.02.01.01
The Integrated Dipole Field B shall provide a deflection angle of ~15 (mrad) (B ~0.936 T). With a peak field in the magnet is held below 1 T.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.07
6.02.03.11.02.01.01
The septum ramp rate shall be able to accommodate four (4) bunch per AGS cycle seperated by 100 ms.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.08.00
6.02.03.11.02.01.01
The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.08.01
6.02.03.11.02.01.01
Field center displacement (wrt the physical magnet center) Displacement in X= +/-150 (um) Displacement in Y= +/-150 (um) Displacement in Z= +/-150 (um)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.08.02
6.02.03.11.02.01.01
Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.1(mrad) Rotational about Y=+/-0.1(mrad) Rotational about Z=+/-0.2(mrad)
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.09.00
6.02.03.11.02.01.01
The magnet shall be designed to meet the following field quality/multipole requirements.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.09.01
6.02.03.11.02.01.01
The harmonic reference radius at which the field quality shall be measured is 25mm
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.09.02
6.02.03.11.02.01.01
The field (Bref) or design energy for which the field quality shall be measured are 52.03 and 81.12 Tm
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.00
6.02.03.11.02.01.01
The magnet shall have the following Multipole content or dB/B within the specified measurement volumes
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.01
6.02.03.11.02.01.01
b1 = 10000, a1 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.02
6.02.03.11.02.01.01
b2 <(+\-)10, a2 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.03
6.02.03.11.02.01.01
b3 <(+\-)10, a3 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.04
6.02.03.11.02.01.01
b4 <(+\-)10, a4 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.05
6.02.03.11.02.01.01
b5 <(+\-)10, a5 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.06
6.02.03.11.02.01.01
b6 <(+\-)10, a6 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.07
6.02.03.11.02.01.01
b7 <(+\-)10, a7 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.08
6.02.03.11.02.01.01
b8 <(+\-)10, a8 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.09
6.02.03.11.02.01.01
b9 <(+\-)10, a9 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.10
6.02.03.11.02.01.01
b10 <(+\-)10, a10 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.11
6.02.03.11.02.01.01
b11 <(+\-)10, a11 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.12
6.02.03.11.02.01.01
b12 <(+\-)10, a12 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.13
6.02.03.11.02.01.01
b13 <(+\-)10, a13 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.14
6.02.03.11.02.01.01
b14 <(+\-)10, a14 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.10.15
6.02.03.11.02.01.01
b15 <(+\-)10, a15 <= +/-10
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.11
6.02.03.11.02.01.01
The magnet fringe field shall not exceed 10 Gauss on the path of the circulating beam in HSR
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.12
6.02.03.11.02.01.01
The magnet field shall have a field homogeneity of better than 2x10-3
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.13
6.02.03.11.02.01.01
The Magnet-Cross-talk from the induction septum on the HSR circulating beam shall be less than 1x10-4, with respect to the main field on injected beam.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.14
6.02.03.11.02.01.01
The magnet shall be designed with components capable to withstand a radiation dose of 1 Mgy
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-MAG-INDSPTM.15
6.02.03.11.02.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >30 Years
04/08/2026
In Process
FALSE

HSR-INJ-PPD-PS

HSR-INJ-PPD-PS-DCSEPT

P-HSR-INJ-PPD-PS-DCSEPT.1
6.02.03.11.01
The magnet model being powered is the DC septum.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.2
6.02.03.11.01
The DC septum power supply shall meet all requirements to deliver the magnet operational parameters defined in the Technical Magnet documentation. [Document#: EIC-SEG-RSI-TBD]
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.3
6.02.03.11.03.02
The power supply shall be a linear topology
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.4
6.02.03.11.03.02
The voltage to ground of the magnet being powered shall be 50 V
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.5
6.02.03.11.03.02
The PS current type shall be DC
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.6
6.02.03.11.03.02
The waveshape di/dt (slew rate) shall be adjustable to limit overvoltage on the magnet
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.7
6.02.03.11.03.02
The PS AC Input voltage shall be 3 phase 480 VAC
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.8
6.02.03.11.03.02
The minmum current the PS must operate at shall be 0 A
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.9
6.02.03.11.03.02
The maximum current the PS must operate at shall be 5500 A
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.10
6.02.03.11.03.02
The flat top current stability shall be 100 ppm of 60% of rated current
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.11
6.02.03.11.03.02
The long term stability shall be 100 ppm of full scale current
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.12
6.02.03.11.03.02
The max current ripple shall be 550 mA between 0.1 Hz and 10 kHz
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSEPT.13
6.02.03.11.03.02
The current setpoint scaling shall be 0-10V = 0-5500A
04/08/2026
In Process
FALSE

HSR-INJ-PPD-PS-DCSPTM

P-HSR-INJ-PPD-PS-DCSPTM.1
6.02.03.11.01
The magnet model being powered is the DC septum.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.2
6.02.03.11.01
The DC septum power supply shall meet all requirements to deliver the magnet operational parameters defined in the Technical Magnet documentation. [Document#: EIC-SEG-RSI-TBD]
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.3
6.02.03.11.03.02
The power supply shall be a linear topology
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.4
6.02.03.11.03.02
The voltage to ground of the magnet being powered shall be 50 V
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.5
6.02.03.11.03.02
The PS current type shall be DC
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.6
6.02.03.11.03.02
The waveshape di/dt (slew rate) shall be adjustable to limit overvoltage on the magnet
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.7
6.02.03.11.03.02
The PS AC Input voltage shall be 3 phase 480 VAC
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.8
6.02.03.11.03.02
The minmum current the PS must operate at shall be 0 A
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.9
6.02.03.11.03.02
The maximum current the PS must operate at shall be 5500 A
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.10
6.02.03.11.03.02
The flat top current stability shall be 100 ppm of 60% of rated current
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.11
6.02.03.11.03.02
The long term stability shall be 100 ppm of full scale current
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.12
6.02.03.11.03.02
The max current ripple shall be 550 mA between 0.1 Hz and 10 kHz
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-DCSPTM.13
6.02.03.11.03.02
The current setpoint scaling shall be 0-10V = 0-5500A
04/08/2026
In Process
FALSE

HSR-INJ-PPD-PS-HSLK

P-HSR-INJ-PPD-PS-HSLK.1
6.02.03.11.01
The magnet model being powered is stripline kicker.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.2
6.02.03.11.01
The stripline kicker power supply shall meet all requirements to deliver the magnet operational parameters defined in the Technical Magnet documentation. [Document#: EIC-SEG-RSI-TBD]
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.3
6.02.03.11.01
The stripline kicker power supply chassis and outer conductor of the high voltage output cable shall be grounded.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.4
6.02.03.11.01
The stripline kicker power supply shall provide a pulsed voltage.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.5
6.02.03.11.01
The stripline kicker power supply maximum voltage shall be at least 30 kV.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.6
6.02.03.11.01
The stripline kicker power supply voltage rise time (2–98% of full-scale amplitude) shall be < 7 ns
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.7
6.02.03.11.01
The stripline kicker power supply voltage fall time (98–2% of full-scale amplitude) shall be less than < 25 ns
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.8
6.02.03.11.01
The stripline kicker power supply voltage flat top time shall be longer than 35 ns.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.9
6.02.03.11.01
The stripline kicker power supply voltage flat top repeatability shall be ±1 %
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.10
6.02.03.11.01
The stripline kicker power supply uniformity of the flattop shall be ±1 %
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.11
6.02.03.11.01
The stripline kicker power supply jitter of the rise time between the positive and negative voltage shall be less than < 1 ns
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.12
6.02.03.11.01
The stripline kicker power supply shall maintain a long-term stability of ±1% of full scale voltage.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.13
6.02.03.11.01
The stripline kicker power supply shall provide a minimal voltage setpoint resolution of 0.1 kV.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.14
6.02.03.11.01
The stripline kicker power supply rise time synchronization between power supplies (jitter) shall be < 1 ns.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-HSLK.15
6.02.03.11.01
The stripline kicker power supply burst mode shall support a repetition rate of 4 pulses separated by 100 ms repeated every AGS cycle
04/08/2026
In Process
FALSE

HSR-INJ-PPD-PS-INDSEPT

P-HSR-INJ-PPD-PS-INDSEPT.1
6.02.03.11.01
The magnet model being powered is the induction septum.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.2
6.02.03.11.01
The induction septum power supply shall meet all requirements to deliver the magnet operational parameters defined in the Technical Magnet documentation. [Document#: EIC-SEG-RSI-TBD]
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.3
6.02.03.11.02.02
The power supply shall be capable of powering a magnet with resistance of approximately 50 mohms
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.4
6.02.03.11.02.02
The power supply shall be capable of powering a magnet with a maximum inductance of 666.341 uH
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.5
6.02.03.11.02.02
The voltage to ground of the magnet being powered shall be TBD V
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.6
6.02.03.11.02.02
The PS current waveform shall be a half sine wave
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.7
6.02.03.11.02.02
The peak waveshape di/dt during ramping shall be TBD
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.8
6.02.03.11.02.02
The PS shall be capable of producing 1267 A peak
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.9
6.02.03.11.02.02
The power supply peak current shall have a stability of 100 ppm of full scale current
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.10
6.02.03.11.02.02
The time period for achieving specified stability shall be no more 6 s
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.11
6.02.03.11.02.02
The current setpoint resolution (min size in bits) shall be TBD bits
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.12
6.02.03.11.02.02
The power supply shall be capable of producing up to 960 V for a 3.2 ms pulse
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSEPT.13
6.02.03.11.02.02
The power supply shall have an interlock for the magnet thermal switch
04/08/2026
In Process
FALSE

HSR-INJ-PPD-PS-INDSPTM

P-HSR-INJ-PPD-PS-INDSPTM.1
6.02.03.11.01
The magnet model being powered is the induction septum.
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.2
6.02.03.11.01
The induction septum power supply shall meet all requirements to deliver the magnet operational parameters defined in the Technical Magnet documentation. [Document#: EIC-SEG-RSI-TBD]
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.3
6.02.03.11.02.02
The power supply shall be capable of powering a magnet with resistance of approximately 50 mohms
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.4
6.02.03.11.02.02
The power supply shall be capable of powering a magnet with a maximum inductance of 666.341 uH
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.5
6.02.03.11.02.02
The voltage to ground of the magnet being powered shall be TBD V
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.6
6.02.03.11.02.02
The PS current waveform shall be a half sine wave
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.7
6.02.03.11.02.02
The peak waveshape di/dt during ramping shall be TBD
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.8
6.02.03.11.02.02
The PS shall be capable of producing 1267 A peak
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.9
6.02.03.11.02.02
The power supply peak current shall have a stability of 100 ppm of full scale current
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.10
6.02.03.11.02.02
The time period for achieving specified stability shall be no more 6 s
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.11
6.02.03.11.02.02
The current setpoint resolution (min size in bits) shall be TBD bits
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.12
6.02.03.11.02.02
The power supply shall be capable of producing up to 960 V for a 3.2 ms pulse
04/08/2026
In Process
FALSE

P-HSR-INJ-PPD-PS-INDSPTM.13
6.02.03.11.02.02
The power supply shall have an interlock for the magnet thermal switch
04/08/2026
In Process
FALSE

HSR-INJ-PPD-PS_SLINE_KICK

P-HSR-INJ-PPD-PS_SLINE_KICK.1
6.02.03.11.01
The number of Independent functions on the stripline kickers being powered shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.2
6.02.03.11.01
The maximum strip line kicker string resistance to be powered shall be TBD ohm
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.3
6.02.03.11.01
The maximum strip line kicker string Inductance\Capitance to be powered shall be TBD (H\F)
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.4
6.02.03.11.01
The magnets being powered shall be saturated TBD Y/N
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.6
6.02.03.11.01
The voltage to ground of the strip line kicker being powered shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.7
6.02.03.11.01
The nominal current of the magnets being powered shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.8
6.02.03.11.01
The minmum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.9
6.02.03.11.01
The maximum current the PS must operate at shall be TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.10
6.02.03.11.01
The PS current type DC or AC shall be TBD DC\AC
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.11
6.02.03.11.01
The PS AC waveshape required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.12
6.02.03.11.01
The peak waveshape di/dt during ramping shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.13
6.02.03.11.01
The full power bandwidth required shall be TBD
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.14
6.02.03.11.01
The ppm of full scale current (peak to peak) shall be TBD %
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.15
6.02.03.11.01
The time period for specified stability shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.16
6.02.03.11.01
The short term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.17
6.02.03.11.01
The long term stability shall be TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.18
6.02.03.11.01
The current setpoint resolution (min size in bits) shall be TBD bits
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.19
6.02.03.11.01
The synchronization required between PS's shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.20
6.02.03.11.01
The synchronization timing of synchronization shall be TBD s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.21
6.02.03.11.01
The max allowable current ripple (peak to peak) TBD A
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.22
6.02.03.11.01
The max current ripple frequency range (Hz) TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.23
6.02.03.11.01
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.24
6.02.03.11.01
The max voltage ripple (peak to peak) shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.25
6.02.03.11.01
An NMR shall be required to measure the field TBD A/s
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.26
6.02.03.11.01
The voltage tap configuration shall be TBD -
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.27
6.02.03.11.01
The threshold levels shall be TBD V
02/09/2026
In Process
FALSE

P-HSR-INJ-PPD-PS_SLINE_KICK.35
6.02.03.11.01
The terminal voltage shall be TBD V
02/09/2026
In Process
FALSE

HSR-INJ-CNTRL : Hadron Storage Ring Injection System Control System (WBS 6.02.04.02)

HSR-INJ-CONT : HSR Hadron Ring Injection Controls System (WBS 6.02.04.02)

HSR-INJ-MPS : Hadron Storage Ring Injection System Machine Protection (WBS 6.04.04.03.02.02)

HSR-INJ-MPS-ABORT

HSR-INJ-MPS-COLLIMATION

HSR-INJ-MPS-CONTROLS

HSR-INJ-MPS-GENERAL

HSR-INJ-MPS-RADSHIELDING

HSR-SNAKE : Hadron Storage Ring Snake Magnet (WBS 6.02.03)

F-HSR-SNAKE.01
6.02.03
Six Siberian Snakes shall be required. · Two existing yellow ring snakes, one in RHIC sector 9 and one in RHIC sector 3, shall stay. · Four additional snakes will be positioned as specified in requirements F-HSR-SNAKE.05 to F-HSR-SNAKE.11
02/09/2026
Approved
FALSE

F-HSR-SNAKE.02
6.02.03
All the snake magnets shall operate utilizing exsisting RHIC ARC cyrogenic distrubution system.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.03
6.02.03
All individual snake magnets shall be powered by individual power supplies.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.04
6.02.03
The HSR snakes shall have the modifications required to accommodate the retrofitted HSR beam screens.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.05
6.02.03
Two additional snakes shall be transferred over from the RHIC Blue ring.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.06
6.02.03
One additional snake shall be placed between Q7 and Q8 at 11 o’clock area of high energy arc.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.07
6.02.03
One additional snake shall be placed between Q8 and Q7 in sector 1 of the 2 o’clock area.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.08
6.02.03
Two additional snakes shall be constructed by reconfiguring four spin rotators removed from the RHIC Blue ring.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.09
6.02.03
One additional reconfigured snake shall be placed sector 5 with its axis parallel to the snake in sector 11.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.10
6.02.03
One additional reconfigured snake shall be placed between Q7 and Q8 in sector 7 of the 8 o’clock area.
02/09/2026
Approved
FALSE

F-HSR-SNAKE.11
6.02.03
All additional snakes shall repeat the internal structure of existing Snakes.
02/09/2026
Approved
FALSE

HSR-STR : Hadron Storage Ring Straight Sector (WBS 6.02.03)

HSR-STR-IR02 : Hadron Storage Ring IR02 Straight Section (WBS 6.02.03)

HSR-STR-IR04 : Hadron Storage Ring IR04 Straight Section (WBS 6.02.03)

HSR-STR-IR06 : Hadron Storage Ring IR06 Straight Section (WBS 6.02.03)

HSR-STR-IR08 : Hadron Storage Ring IR08 Straight Section (WBS 6.02.03)

HSR-STR-IR10 : Hadron Storage Ring IR10 Straight Section (WBS 6.02.03)

HSR-STR-IR12 : Hadron Storage Ring IR12 Straight Section (WBS 6.02.03)

HSR-PS : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-BIP150 : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-BIP300 : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-DIPOLE : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-DMAIN : HSR Magnet Power Supply (WBS 6.02.03.04)

P-HSR-PS-DMAIN.01
The magnet model being powered by the power supply is HSR Are all dipoles on the Main Dipole Bus.
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.02
The DMAIN power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR Magnet String Design Configuration [EIC-SEG-RSI-196]
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.03
The Maximum voltage of the magnet-to-ground shall be 600 (V)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.04
The Power supply current type shall be Ramped DC
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.04.01
The Magnet max operating current during full energy flat-top shall be 5676 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.04.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.04.03
The Magnet max operating current during injection shall be 568 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.04.04
The Nominal ramp di/dt shall be 25 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.04.05
The Peak ramp di/dt shall be 50 (A/s)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.04.06
nan
07/31/2026
In Process
FALSE

P-HSR-PS-DMAIN.04.07
nan
07/31/2026
In Process
FALSE

P-HSR-PS-DMAIN.05
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.06
The Short term current stability (up to 30Mins) at maximum operating current. shall be 30 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.06.01
The Long term current stability (1 second to TBD hours) at maximum operating current. shall be 10 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.06.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.07
The Current setpoint resolution shall be 24 (bits)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.08
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.08.01
The Power Supply requires analog readback synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09
The Current ripple in the 0–30 k(Hz) range. shall be 1 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.01
The Current ripple in the <30 k(Hz) range. shall be 4 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.03
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.04
The Current ripple during injection shall be 3 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.05
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.06
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.07
The Current accuracy (acceptable error during ramp) shall be 20 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.08
The Current accuracy (acceptable error during flat-top) shall be n/a (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.09
The Beam-to-beam repeatability shall be 5 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.09.10.00
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.10
The Operational temperature range. shall be 23.9+-0.3 (C)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.11
nan
07/31/2026
In Process
FALSE

P-HSR-PS-DMAIN.11.01
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.11.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.11.03
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.11.04
The magnet shall require Quench heater power
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.11.05
The Quench heater power rating shall be TBD (W)
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.11.06
The maget shall require Warm up heater power
07/06/2026
Approved
FALSE

P-HSR-PS-DMAIN.11.07
The Warm up heaters rating shall be TBD (W)
07/06/2026
Approved
FALSE

HSR-PS-DW0 : HSR Magnet Power Supply (WBS 6.02.03.04)

P-HSR-PS-DW0.01
The magnet model being powered by the power supply is DW0.
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.02
The DW0 power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. HSR Magnet String Design Configuration document [EIC-SEG-RSI-196]
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.03
The Maximum voltage of the magnet-to-ground shall be 600 (V)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.04
The Power supply current type shall be Ramped DC
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.04.01
The Magnet max operating current during full energy flat-top shall be 700 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.04.02
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.04.03
The Magnet max operating current during injection shall be 60.7 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.04.04
The Nominal ramp di/dt shall be 2.83 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.04.05
The Peak ramp di/dt shall be 3.5 (A/s)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.05
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.06
The Short term current stability (up to 30Mins) at maximum operating current. shall be 30 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.06.01
The Long term current stability (1 second to TBD hours) at maximum operating current. shall be 10 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.06.02
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.07
The Current setpoint resolution shall be 20 (bits)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.08
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.08.01
The Power Supply requires analog readback synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.09
The Current ripple in the 0–30 k(Hz) range. shall be 25 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.09.01
The Current ripple in the <30 k(Hz) range. shall be 100 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.09.02
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.09.03
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.09.04
The Current ripple during injection shall be 25 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.09.05
The Power supply switching tuning frequency range shall be +/- 500 (Hz)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.09.06
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.09.07
The Current accuracy (acceptable error during ramp) shall be 50 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.09.08
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.09.09
The Beam-to-beam repeatability shall be 25 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.09.10.00
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.10
The Operational temperature range. shall be 23.9+-0.3 (C)
07/06/2026
Approved
FALSE

P-HSR-PS-DW0.11.01
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.11.02
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.11.03
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.11.04
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.11.05
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.11.06
< Requirment Not Required >
07/06/2026
In Process
FALSE

P-HSR-PS-DW0.11.07
< Requirment Not Required >
07/06/2026
In Process
FALSE

HSR-PS-GAMMAT : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-NONLINEAR : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-OCTUPOLE : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-QMAIN : HSR Magnet Power Supply (WBS 6.02.03.04)

P-HSR-PS-QMAIN.01
The magnet model being powered by the power supply is QMAIN.
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.02
The QMAIN power supply shall meet all requirements to deliver the magnet operational parameters defined in the technical magnet documentation. [HSR Magnet String Design Configuration [EIC-SEG-RSI-196]
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.03
The Maximum voltage of the magnet-to-ground shall be 600 (V)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.04
The Power supply current type shall be Ramped DC
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.04.01
The Magnet max operating current during full energy flat-top shall be 5860 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.04.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.04.03
The Magnet max operating current during injection shall be 568 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.04.04
The Nominal ramp di/dt shall be 25 (A)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.04.05
The Peak ramp di/dt shall be 50 (A/s)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.04.06
nan
07/31/2026
In Process
FALSE

P-HSR-PS-QMAIN.04.07
nan
07/31/2026
In Process
FALSE

P-HSR-PS-QMAIN.05
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.06
The Short term current stability (up to 30Mins) at maximum operating current. shall be 30 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.06.01
The Long term current stability (1 second to TBD hours) at maximum operating current. shall be 10 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.06.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.07
The Current setpoint resolution shall be 24 (bits)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.08
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.08.01
The Power Supply requires analog readback synchronized to the line to reduce noise.
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09
The Current ripple in the 0–30 k(Hz) range. shall be 1 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.01
The Current ripple in the <30 k(Hz) range. shall be 4 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.03
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.04
The Current ripple during injection shall be 3 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.05
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.06
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.07
The Current accuracy (acceptable error during ramp) shall be 20 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.08
The Current accuracy (acceptable error during flat-top) shall be n/a (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.09
The Beam-to-beam repeatability shall be 5 (ppm)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.09.10.00
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.10
The Operational temperature range. shall be 23.9+-0.3 (C)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.11
nan
07/31/2026
In Process
FALSE

P-HSR-PS-QMAIN.11.01
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.11.02
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.11.03
< Requirment Not Required >
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.11.04
The magnet shall require Quench heater power
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.11.05
The Quench heater power rating shall be TBD (W)
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.11.06
The maget shall require Warm up heater power
07/06/2026
Approved
FALSE

P-HSR-PS-QMAIN.11.07
The Warm up heaters rating shall be TBD (W)
07/06/2026
Approved
FALSE

HSR-PS-ROT : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-SEXUPOLE : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-SKEWQUAD : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-SNAKE : HSR Magnet Power Supply SNAKE (WBS 6.02.03.04)

HSR-PS-TUNI300 : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-UNI200 : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-UNI300 : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-UNI450 : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-PS-UNI600 : HSR Magnet Power Supply (WBS 6.02.03.04)

HSR-INST : HSR Instrumentation System (WBS 6.02.03.05)

HSR-INST-DAMP : Hadron Storage Ring Longitudnal Damping Instrumentation (WBS 6.02.03)

HSR-INST-DAMP-LBBD : HSR Instrumentation Longitudinal Bunch-by-Bunch Damper (WBS 6.02.03.05.03)

HSR-INST-DAMP-TBBD : HSR Instrumentation Transverse Bunch-by-Bunch Damper (WBS 6.02.03.05.03)

HSR-INST-DAMP-INJDAMP : HSR Instrumentation Injection Damper (WBS 6.02.03.05.04)

HSR-INST-GC : Hadron Storage Ring Gap Cleaner Instrumentation (WBS 6.02.03)

HSR-INST-HFSKOTTY : Hadron Storage Ring HF Schottky Instrumentation (WBS 6.02.03)

HSR-INST-LFSKOTTY : Hadron Storage Ring LF Schottky Instrumentation (WBS 6.02.03)

HSR-INST-TM : Hadron Storage Ring Tune Monitoring Instrumentation (WBS 6.02.03)

HSR-INST-TM-TMK : HSR Instrumentation Horizontal and Vertical Tune Meter Kicker (WBS 6.02.03.05.04)

HSR-INST-BPM : HSR Instrumentation Beam Position Monitor System (WBS 6.02.03.05.01)

HSR-INST-BPM-ELEC : HSR Instrumentation Beam Position Monitoring Electronics (WBS 6.02.03.05.01.01)

P-HSR-INST-BPM-ELEC.01
6.02.03.05.01.01
The HSR BPM Electronics shall have the following capabilitys defined for the low intensity pilot injection energies, the ramp intensity energies and high intensity collision energies as defined in the Master Paramater :
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.01
6.02.03.05.01.01
The HSR BPM Electronics shall provide a measurement of a single bunch when there is a single bunch in the machine, else bunch-by-bunch measurements are not required.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.02
6.02.03.05.01.01
The HSR BPM Electronics shall provide one position measurement per turn which includes all bunches combined will be the narrowest (turn-by-turn) mode of sampling.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.03
6.02.03.05.01.01
The HSR BPM Electronics associated with the hadron BPM pickup installed between B0pF and B0ApF shall have the necessary bandwidth and characteristics to provide measurements for the hadron crabbing angle of 12.5 (mrad).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.01.04
6.02.03.05.01.01
The HSR BPM Electronics in the HSR arcs (defined in this case as from Q5 to Q5) need to be able to provide measurements during the store with an considerably shifted beam radial orbit. The BPMs here shall be able to measure a maximum radial orbit shift range of +\- 21 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02
6.02.03.05.01.01
The HSR BPM Electronics shall have the following time resolutions for data refresh defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.01
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an array of status 16 Bits, defining for each measurment. (Review SD file)
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.02
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an array of at least 1024 consecutive single-turn position measurements at a continuous rate of 1 Hz at the first injected bunch.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.03
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an array of at least 1 million consecutive single-turn position measurements at the first injected bunch.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.04
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering average beam orbit measurements at a continuous rate of 1 Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.05
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering bunch-by-bunch beam orbit measurements of a single turn at a continuous rate of TBD Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.06
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering the sum signal at rate of 1 Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.07
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of retrieving an array of at least 2048 single-turn position measurements prior to an ABORT.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.08
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering an ADC sample measurements of a minimal of 4 turns at a rate of least 1 Hz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.02.09
6.02.03.05.01.01
The HSR BPM Electronics shall be capable of delivering fast orbit feedback measurements at a continuous rate of 10 kHz.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the Injection beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.02.01
6.02.03.05.01.01
For 5 nC bunches at injection parameters, the BPM Electronics resolution when measuring one turn orbit shall not be larger than 2 mm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.02.02
6.02.03.05.01.01
For a 44 nC bunch at injection parameters, the BPM Electronics resolution when measuring one turn orbit shall not be larger than 0.2 mm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.03
6.02.03.05.01.01
For 5 nC bunches at injection parameters, the BPM Electronics resolution when measuring the averaged orbit over a 1 second period shall not be larger than 200 µm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.03.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.04
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the Ramping beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.04.03
6.02.03.05.01.01
For 44 nC bunch at acceleration ramp parameters, the BPM Electronics resolution when measuring the averaged orbit over a 1 second period shall not be larger than 20 µm RMS.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.04.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the collision beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05.03.01
6.02.03.05.01.01
For bunch charge of 5 nC and above, during spliting and bunch compression at collision energies, the BPM Electronics resolution when measuring the average orbit over a 1 second period shall not be larger than 100 µm RMS
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05.03.02
6.02.03.05.01.01
For bunch charge of 5 nC and above, post spliting and bunch compression at collision energies, the BPM Electronics resolution when measuring the average orbit over a 1 second period shall not be larger than 20µm RMS
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.05.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.06
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the fast feedback energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.06.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.07
6.02.03.05.01.01
The HSR BPM Electronics shall have the following measurement resolutions defined for the slow feedback energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-ELEC.07.05
6.02.03.05.01.01
The maximum allowable BPM Electronics measurement drift due to thermal variations (0.5hrs) shall be < 100 µm
02/09/2026
Reviewed
FALSE

HSR-INST-BPM-PU : Instrumentation Pickups (WBS 6.02.03.05.01.02)

P-HSR-INST-BPM-PU.01
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall provide dual plane (horizontal and vertical) beam postional measurements.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) shall be positioned in the following locations:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.01
6.02.03.05.01.02
The HSR cryogenic Beam Position Monitor (BPM) pick-ups shall be placed in locations as close as possible to the existing RHIC stripline BPM in the straight sections approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02
6.02.03.05.01.02
The HSR Warm Beam Position Monitor (BPM) Pick-up (PU) shall be placed in the following locations approved by physics:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02.01
6.02.03.05.01.02
The HSR Warm BPM PU shall be added on both sides of the triplets to replace the RHIC Q1 and Q3 BPM.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02.02
6.02.03.05.01.02
The HSR Warm BPM PU shall be added in IR4 injection area for adequate measurement of both injected and circulating beam.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.02.03
6.02.03.05.01.02
The HSR Warm BPM PU shall be added in IR2 cooling section for reliable alignment of hadron and electron beam.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.03
6.02.03.05.01.02
The HSR snake & spinrotator beam position monitor pick-up shall be placed in the helical magnets cyrostat with locations approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04
6.02.03.05.01.02
The HSR Interaction Region (IR) BPM PU shall be placed in the following locations approved by physics:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04.01
6.02.03.05.01.02
The HSR IR BPM PU shall in available locations as close as possible to the existing RHIC stripline BPM inside RHIC cryostats which are being reused
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04.02
6.02.03.05.01.02
The HSR IR BPM PU shall sighted on either side of IP6 where there is a different (nontraditional) beam pipe aperture.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.02.04.03
6.02.03.05.01.02
The HSR IR BPM PU shall be installed between B0pF and B0ApF with the dedicated purpose of measuring the hadron crabbing angle of 12.5 (mrad).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01
6.02.03.05.01.02
The HSR cryogenic Beam Position Monitor (BPM) Pick-up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.01
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- 0.6 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.02
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- 0.6 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.03
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- 0.3 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.01.04
6.02.03.05.01.02
The HSR cryogenic BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- 0.3 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.02
6.02.03.05.01.02
The HSR warm Beam Position Monitor (BPM) Pick-up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.02.01
6.02.03.05.01.02
The HSR warm BPM PU mechanical center horizontal and vertical position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- 0.1 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.02.02
6.02.03.05.01.02
The HSR warm BPM PU mechanical center horizontal and vertical position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- 2.0 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.03
6.02.03.05.01.02
The HSR snake & spinrotator beam position monitor pick-up mechanical center shall be aligned relative to the magnetic centers of nearby helical magnets within at least 0.5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04
6.02.03.05.01.02
The HSR Interaction Region (IR) Beam Position Monitor (BPM) Pick-up (PU) mechanical center in the locations identified shall be:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.01
6.02.03.05.01.02
The HSR IR BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.02
6.02.03.05.01.02
The HSR IR BPM PU mechanical center horizontal position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.03
6.02.03.05.01.02
The HSR IR BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall be known to a certainty within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.03.04.04
6.02.03.05.01.02
The HSR IR BPM PU mechanical center vertical position alignment with respect to the quadrupole magnetic center shall have an absolute misalignment within +/- TBD (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.04
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up housings shall have a +/- 1 degree roll tolerance with regards to BPM measurements.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.05
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.06
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall have the geometrical aperture defined by vacuum group and approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) shall have the following dynamic resolution offsets defined for the beam energies as defined in the Master Parameter Table: [EIC Document: EIC-SEG-RSI-005]
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.02
6.02.03.05.01.02
The HSR warm beam position monitor pick-up shall have the dynamic resolution offsets over the horizontal and vertical beam position range with respect to magnetic element center of +/- 5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.03
6.02.03.05.01.02
The HSR snake & spin rotator Beam Position Monitor (BPM) Pick-Up (PU) shall have the following dynamic resolution offsets defined for the beam energies:
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.03.01
6.02.03.05.01.02
At injection energies, the snake & spin rotator BPM PU shall fulfill resolution requirements over the vertical beam position range with respect to magnetic element center of +/- 30 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.03.02
6.02.03.05.01.02
At collision energies, the snake & spin rotator BPM PU shall fulfill resolution requirements over the horizontal beam position range of +/- 15 (mm) and vertical beam position range of +/- 10 (mm) with respect to magnetic element center.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.07.04
6.02.03.05.01.02
The HSR interaction region beam position monitor pick-up shall have the dynamic resolution offsets over horizontal beam position range of +/- 21 (mm) and vertical beam of +/- 10 (mm) position range with respect to magnetic element center.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.08
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall compatibly interface with the new coated sleeves that are being added to the HSR vacuum pipe.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.09
6.02.03.05.01.02
The HSR cryogenic beam position monitor pick-up shall be able to operate at cold temperatures [~4.2 (K)] with a heat load less than the budgeted heat load defined by cryogenic group and approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.10
6.02.03.05.01.02
The HSR beam position monitor pick-up shall be designed to be processed by the vacuum bakeout procedure for UHV processing. (EIC Doc#: EIC-VSG-SPC-023)
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.11
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Ups shall be designed to ensure the maximum temperatures of the components (due to heating by the beam) are acceptable for reliability and operations of the EIC over the planned operational life of 20 (yrs).
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.12
6.02.03.05.01.02
The HSR Beam Position Monitor Pick-Up shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD (Mgy).
02/09/2026
Reviewed
FALSE

P-HSR-INST-BPM-PU.13
6.02.03.05.01.02
The HSR Beam Position Monitor (BPM) Pick-Up (PU) shall have the following button configuration symmetry.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.01
6.02.03.05.01.02
The HSR cyrogenic Beam Position Monitor (BPM) pick-up configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 200 microns.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.02
6.02.03.05.01.02
The HSR warm Beam Position Monitor (BPM) pick-up button configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 100 microns.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.03
6.02.03.05.01.02
The HSR snake and spinrotator Beam Position Monitor (BPM) pick-up configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 200 microns.
02/09/2026
In Process
FALSE

P-HSR-INST-BPM-PU.13.04
6.02.03.05.01.02
The HSR interaction region Beam Position Monitor (BPM) pick-up configuration will be mirror symmetric with respect to the mid-and center planes. Deviation from symmetry shall be such that corresponding BPM reading errors are less then 200 microns.
02/09/2026
In Process
FALSE

HSR-INST-BPM-CRYO_CABLES : HSR Instrumentation Cryogenic Cables (WBS 6.02.03.05.01.03)

HSR-INST-BBLM : HSR Instrumentation Bunch-by-Bunch Loss Monitors (WBS 6.02.03.05.02)

HSR-INST-BLM : HSR Instrumentation Beam Loss Monitors (WBS 6.02.03.05.02)

HSR-INST-DCCT : HSR Instrumentation Current and Charge Monitor (WBS 6.02.03.05.02)

F-HSR-INST-DCCT.01
6.02.03
The DCCT shall be capable of operating in four main EIC parameter configurations (highest average current, highest peak current, ramp configuration and injection configuration) in the HSR. Refer to the MPT [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.01
6.02.03.05.02
The HSR DC Current Transformer shall measure the average beam current over the range of 0.390 (mA) to 1000 (mA).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.02
6.02.03.05.02
The HSR DC Current Transformer shall provide an average current measurement with a resolution of less than 5 (uA /√Hz).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.03
6.02.03.05.02
The HSR DC Current Transformer measurement drift tolerance shall be less than 10 (uA) over 1 (hr).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.04
6.02.03.05.02
The HSR DC Current Transformer system average beam current measurement shall have an absolute accuracy of better than +/- 2 (%).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.05
6.02.03.05.02
The HSR DC Current Transformer system shall operate in ultra-high vacuum.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.06
6.02.03.05.02
The impedance of HSR DC Current Transformer sensor shall be approved by beam physics.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.07
6.02.03.05.02
The HSR DC Current Transformer system shall have a remote controlled calibration system.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.08
6.02.03.05.02
The HSR DC Current Transformer Calibration system shall be capable of providing an equivalent DC current within +/- 1 (%) over the beam current range of 0.390 (mA) to 1000 (mA).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.09
6.02.03.05.02
The HSR DC Current Transformer digitizer rate shall be 720 (Hz) and stored in an array of 1 (s) duration for post mortum use.
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.10
6.02.03.05.02
The HSR DC Current Transformer measured average current shall be archived at a rate of 1 (Hz).
02/09/2026
Approved
FALSE

P-HSR-INST-DCCT.11
6.02.03.05.02
The HSR DC Current Transformer shall be a radiation hardened device.
02/09/2026
Approved
FALSE

HSR-INST-LPM : HSR Instrumentation Longitudinal Profile Monitors (WBS 6.02.03.05.03)

F-HSR-INST-LPM.01
6.02.03
An LPM supporting physics requirements shall be strategically placed in the HSR to monitor the HR longitudinal profile at injection, on the ramp, during bunch splitting and at store with bunch compression.
02/09/2026
Approved
FALSE

F-HSR-INST-LPM.02
6.02.03
An LPM supporting physics requirements shall be strategically placed in the HSR to monitor the longitudinal profile and provide data to the LLRF systems at injection, on the ramp, during bunch splitting and at store with bunch compression.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.01
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be able to accommodate all bunch parameters set forth in the MPT including RF longitudinal gymnastics with a maximum of 2 (GHz).
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.02
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of monitoring satellite bunches in neighboring buckets
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.03
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of measuring bunch profiles for each bunch circulating in the HSR from injection to store.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.04
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of measuring bunch profiles during bunch splitting and bunch compression.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.05
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall measure bunch profile placement in the RF bucket with 50 (ps) resolution.
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.06
6.02.03.05.03
The HSR Longitudinal Profile Monitor charge measurement shall not vary more than +/- TBD % per mm of beam offset
02/09/2026
In Process
FALSE

P-HSR-INST-LPM.07
6.02.03.05.03
The HSR Longitudinal Profile Monitor charge measurement shall maintain a thermal drift tolerance of < TBD nC/K
02/09/2026
In Process
FALSE

P-HSR-INST-LPM.08
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be able to measure a single bunch profiles averaged over 1000 turns with resolution of 50 ps
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.09
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be able to measure the integrated charge of a single bunch averaged over 1000 turns with a resolution of 0.5 nC
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.10
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall operate in ultra-high vacuum
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.11
6.02.03.05.03
The impedance of the HSR Longitudinal Profile Monitor shall be approved by beam physics
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.12
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be capable of making bunch charge measurements for each bunch circulating in the HSR for the life of the store
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.13
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of logging bunch profiles over the life of the store
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.14
6.02.03.05.03
The HSR Longitudinal Profile Monitor system shall be capable of provide mountain range displays of logged profiles
02/09/2026
Approved
FALSE

P-HSR-INST-LPM.15
6.02.03.05.03
The HSR Longitudinal Profile Monitor shall be a radiation hardened device.
02/09/2026
Approved
FALSE

HSR-INST-TPM : HSR Instrumentation Transverse Profile Monitors (WBS 6.02.03.05.03)

F-HSR-INST-TPM.01
6.02.03
Transverse profiles monitors shall be strategically placed in the HSR warm sections to monitor the horizontal and vertical beam profiles with sufficient precision.
02/09/2026
Approved
FALSE

P-HSR-INST-TPM.01
6.02.03.05.03
The transverse profile monitors shall have the capability to produce profiles of an individual proton bunch over a bunch charge range from 5 to 44 nC.
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.02
6.02.03.05.03
The transverse profile monitors shall have the capability to measure profiles of bunch trains separated by 1/3 of the HSR circumference.
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.03
6.02.03.05.03
The transverse profile monitors shall provide continuous measurements with an intervals at least 30 s
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.04
6.02.03.05.03
The transverse profile monitors shall have the capability to measure turn-by-turn profiles of a single bunch of protons for at least 100 turns
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.05
6.02.03.05.03
For horizontal plane profile measurement from 44nC bunches to 5nC bunches, the transverse profile monitors shall have a respective resolution range of 0.5 to 1.5 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.06
6.02.03.05.03
For vertical plane profile measurement from 44nC bunches to 5nC bunches, the transverse profile monitors shall have a respective resolution range of 0.15 to 0.5 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.07
6.02.03.05.03
The horizontal transverse profile monitor, transverse measurement range shall be +/- 12 mm
02/09/2026
Reviewed
FALSE

P-HSR-INST-TPM.08
6.02.03.05.03
The vertical transverse profile monitor, transverse measurement range shall be +/- 12 mm
02/09/2026
Reviewed
FALSE

HSR-INST-BBTM : HSR Instrumentation Base-band Tune Meter System (WBS 6.02.03.05.04)

HSR-INST-GAPCL : HSR Instrumentation Gap Cleaner (WBS 6.02.03.05.04)

HSR-INST-SLK : HSR Instrumentation Stripline Kicker (WBS 6.02.03.05.04)

HSR-INST-FBSYS : HSR Instrumentation Global Orbit Feedback System (WBS 6.02.03.05.05)

HSR-INST-HTPU : HSR Instrumentation Head-tail Pick-up (WBS 6.02.03.05.06)

HSR-INST-INJDAMP

HSR-INST-LBBD

HSR-INST-TBBD

HSR-INST-TMK

HSR-VAC : HSR Vacuum System (WBS 6.02.03.06)

HSR-VAC-BELL : Hadron Storage Ring Vacuum Beam Screen Bellow (WBS 6.02.03)

HSR-VAC-BS : Hadron Storage Ring Vacuum Beam Screen (WBS 6.02.03)

F-HSR-VAC-BS.01
6.02.03
The beam screen design shall ensure adequate vacuum level & stability for all beam parameters in the MPT [Document#:EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.02
6.02.03
The screens shall reduce the average combined heat load on cryogenic system from resistive beam heating and electron cloud to 0.5 W/m or less, including the worst case of radially shifted orbit.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.03
6.02.03
The cooling system shall be capable of removing the thermal load generated by resistive beam heating and electron cloud.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.04
6.02.03
All beam screens shall be actively cooled to operate below 10K
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.05
6.02.03
The RF finger bellows shall operate at a temperature required to minimize beam heating effects.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.06
6.02.03
Beam screens shall be designed to fit into the HSR round cold beam pipes in all seven HSR arcs.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.07
6.02.03
Beam screens shall be designed to fit into the cold mass interconnect.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.08
6.02.03
The impedance of the screen design, including the screen with RF finger bellows at the cold mass interconnects shall not exceed the global impedance budget which has been defined by approved by beam physics.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.09
6.02.03
The beam screens shall be designed to be mechanically resistant to eddy-current forces resulting from a magnet quench.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.10
6.02.03
The beam screen design shall be compatible with the transition-crossing jump function.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.11
6.02.03
The beam screen fabrication and installation shall be conducted such that the installation process minimizes or eliminates adding particulates to the hadron ring.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.12
6.02.03
All beam screens shall be designed to be removable without negative impact to any HSR components.
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.13
6.02.03
The innermost surface of the RF finger bellows shall suppress electron secondary emission yield (SEY).
02/09/2026
Approved
FALSE

F-HSR-VAC-BS.14
6.02.03
The RF finger bellows shall not interfere with the existing process and magnet bus lines (anti-squirm can)
02/09/2026
Approved
FALSE

HSR-VAC-INTC : HSR Vacuum RF Finger Bellows (WBS 6.02.03.06.01)

P-HSR-VAC-INTC.01
6.02.03.06.01
The interconnect module shall be designed to accommodate a range of motion from -10 (mm) to 40 (mm) about the nominal install length.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.02
6.02.03.06.01
The RF bridge shall be designed to allow a 3 (mm) maximum radial offset from the nominal installed position while maintaining electrical contact.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.03
6.02.03.06.01
The contact force between the RF fingers and the sleeve shall be greater than 1 (N/mm) in order to maintain good electrical contact and minimize beam induced heating and impedance.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.04
6.02.03.06.01
The maximum allowable installed radial offset of the installed interconnect module shall be less than 1 (mm) end to end.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.05
6.02.03.06.01
The maximum allowable twist of the installed RF bellows shall be 2 degree end-to-end.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.06
6.02.03.06.01
The moveable extraction flange bellows shall be designed to allow for 5.5 (mm) extension and 0.5 (mm) additional compression from the installed connection to accommodate the differential thermal growth between the magnet cold bore and the beam screen.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.07
6.02.03.06.01
The moveable extraction flange assembly shall be designed to withstand a maximum torque of 70,000 (N-mm) due to magnet quench.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.08
6.02.03.06.01
All copper surfaces with direct exposure to the beam in the interconnect module shall have a minimum RRR value of 10.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.09
6.02.03.06.01
The interconnect module shall be designed to have a maximum operating temperature less than 40 (K).
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.10
6.02.03.06.01
The innermost surface of the interconnect module shall have a secondary electron yield (SEY) below 1.1 after conditioning.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.11
6.02.03.06.01
The relative magnetic permeability of the interconnect module at 4 (K) @ 500 (Oe) magnetization shall be less than 1.8
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.12
6.02.03.06.01
The horizontal and vertical aperture of the interconnect module shall match the adjoining beam screens.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.13
6.02.03.06.01
The BPM mounting side of the interconnect module shall have machined survey fiducials to survey and record the BPM position after installation.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.14
6.02.03.06.01
The interconnect module shall not interfere with pre existing RHIC components.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.15
6.02.03.06.01
The interconnect module design shall include an RF connection to the beam screen.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.16
6.02.03.06.01
The interconnect module design shall have provisions for mounting BPMs or replace existing RHIC stripline BPMs.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.17
6.02.03.06.01
The interconnect module design shall ensure the required vacuum level is achieved for all beam parameters defined in the Master Parameter Table. [Document#:EIS-SEG-RSI-005]
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.18
6.02.03.06.01
The interconnect module design and installation shall minimize or eliminate adding particulates to the hadron ring.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.19
6.02.03.06.01
The cooling system shall be capable of removing the thermal load generated by resistive beam heating and electron cloud.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.20
6.02.03.06.01
The interconnect module design shall ensure adequate electrical, mechanical, and thermal contact to applicable adjacent components.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.21
6.02.03.06.01
The internal profile of the interconnect module shall be chosen to minimize the beam impedance as much as possible.
03/19/2026
Reviewed
FALSE

P-HSR-VAC-INTC.23
6.02.03.06.01
The internal profile of the interconnect module shall be chosen to minimize the beam impedance as much as possible.
02/09/2026
In Process
FALSE

HSR-VAC-INTC-RF : HSR Vacuum Bellows RF Fingers (WBS 6.05.04.02)

HSR-VAC-SCREENS : HSR Vacuum Beam Screen (WBS 6.02.03.06.01)

P-HSR-VAC-SCREENS.01
6.02.03.06.01
The inner layer of copper shall have a RRR greater than 50 after installation.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.02
6.02.03.06.01
The innermost surface of the beam screen shall have a secondary electron yield (SEY) below 1.02 at the arc CQS after conditioning.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.03
6.02.03.06.01
The innermost surface of the beam screen shall have a secondary electron yield (SEY) below 1.08 at the arc Dipoles after conditioning.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.04
6.02.03.06.01
The overall beam screen impedance shall be less than the impedance budget as provided by accelerator physics.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.05
6.02.03.06.01
The beam screen shall be designed to have a maximum operating temperature less than 10 (K).
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.06
6.02.03.06.01
The arc and insertion region beam screens will be designed to fit through a 68 (mm) aperture.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.07
6.02.03.06.01
The vertical beam aperture for the arc section beam screens shall be greater than 47.5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.08
6.02.03.06.01
The horizontal beam aperture for the arc section beam screens shall be greater than 62.5 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.09
6.02.03.06.01
The center shift of the horizontal beam screen aperture shall not exceed 2.5 (mm) when installed in to the dipole due to the magnet sagitta.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.10
6.02.03.06.01
No more than 2 (mm) of stainless steel shall be exposed to the beam in order to accommodate the longitudinal weld seam.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.11
6.02.03.06.01
The beam screen profile will be closed using a full penetration laser weld. The maximum weld protrusion on the inside of the profile shall be less than 0.2 (mm).
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.12
6.02.03.06.01
The beam screen shall be capable of conforming to the arc dipole sagitta without damage. (ref. RHIC drawing number 12010005).
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.13
6.02.03.06.01
The triplet beam screens shall be designed to fit through a TBD aperture.
02/09/2026
In Process
FALSE

P-HSR-VAC-SCREENS.14
6.02.03.06.01
The minimum vertical aperture for the triplet beam screens shall be greater than 90 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.15
6.02.03.06.01
The minimum horizontal aperture for the triplet beam screens shall be greater than 105 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-SCREENS.16
6.02.03.06.01
The magnetic permeability of the beam screen at 300 (K) @ 500 (Oe) magnetization shall be less than 1.005.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.17
6.02.03.06.01
The magnetic permeability of the beam screen at 4 K @ 500 Oe magnetization shall be less than 1.02.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.18
6.02.03.06.01
The eddy current induced effects of the beam screens inside of the gamma-transition jump quadrupoles on the same power supply shall be matched within TBD percent.
02/09/2026
In Process
FALSE

P-HSR-VAC-SCREENS.19
6.02.03.06.01
The beam screens and connected vacuum components shall be designed to allow degassing up to a temperature of 80 K.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.20
6.02.03.06.01
After installation the ends of adjacent beam screens shall be aligned within 1 degree of the orbit plane.
02/09/2026
Approved
FALSE

P-HSR-VAC-SCREENS.21
6.02.03.06.01
All beam screen cooling tube welds shall be external to the beam vacuum space (UHV).
02/09/2026
Approved
FALSE

HSR-VAC-ARC : HSR Vacuum Arc Section (WBS 6.02.03.06.03)

HSR-VAC-CYROMOD : HSR Vacuum RF Cyrostat Modifications (WBS 6.02.03.06.03)

HSR-VAC-HELICAL : HSR Vacuum Helical Snake Magnet Beam Pipe (WBS 6.02.03.06.03)

P-HSR-VAC-HELICAL.01
6.02.03.06.03
The inner layer of copper shall have a RRR greater than TBD after installation.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.02
6.02.03.06.03
The innermost surface of the beam pipe shall have a secondary electron yield (SEY) below TBD.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.03
6.02.03.06.03
The beam pipe shall be designed to have a maximum operating temperature less than 10 (K).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.04
6.02.03.06.03
The beam aperture for the snake magnet shall be greater than 82 (mm).
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.05
6.02.03.06.03
The beam aperture for the ends of the snake magnet shall taper to match the arc section beam screen aperture.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.06
6.02.03.06.03
No more than TBD (mm) of stainless steel shall be exposed to the beam in order to accommodate the transverse removals on the weld seam.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.07
6.02.03.06.03
The magnetic permeability of the beam pipe at 300 (K) @ 500 (Oe) magnetization shall be less than TBD.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.08
6.02.03.06.03
The magnetic permeability of the beam pipe at 4 K @ 500 Oe magnetization shall be less than TBD.
02/09/2026
In Process
FALSE

P-HSR-VAC-HELICAL.09
6.02.03.06.03
The ends of snake beam pipe shall be aligned within 1 degree of the orbit plane.
02/09/2026
Reviewed
FALSE

P-HSR-VAC-HELICAL.10
6.02.03.06.03
The Beam pipe Outer Diameter (OD) shall be be equal to or less than the RHIC (HLX) snake magnet beam pipe OD. (ref. RHIC drawing number 12011226).
02/09/2026
Reviewed
FALSE

HSR-VAC-STRAIGHT : HSR Vacuum Straight Section (WBS 6.02.03.06.05)

HSR-VAC-CRYOMOD

P-HSR-VAC-CRYOMOD.01
6.02.03.06.03
The heat load from the ACBS components to the cold bore during the 80 (K) degassing shall be less than 60 (W) per cooling zone.
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.02
6.02.03.06.03
The ACBS and extraction piping shall meet the B31.3 cryogenic process piping requirements given the following criteria for pressure, temperature and stress as identified in requirements P-HSR-VAC-CRYOMOD.02.0X.
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.02.01
6.02.03.06.03
The Max Allowable External Working Pressure (MAEWP) shall be 1 (atm) external at 322 (K).
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.02.02
6.02.03.06.03
The Minimum Design Metal Temperature (MDMT) shall be 4 (K) at 18.8 (bar).
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.02.03
6.02.03.06.03
The Max Allowable Working Pressure (MAWP) shall be 18.8 (bar) at 322 (K).
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.02.04
6.02.03.06.03
The ACBS Heater Piping Pressure and Flexibility (HPPF) shall be 18.8 (bar).
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.03
6.02.03.06.03
All ACBS piping shall be pressure tested to 110% design pressure of 20.7 (bar) at 300 (K).
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.04
6.02.03.06.03
The ACBS heater shall be capable of providing sufficient power to achieve the required 80 (K) degassing temperature.
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.05
6.02.03.06.03
The ACBS cooling circuit control valve shall be able to regulate the coolant flow between 0 and 2.5 (grams/sec).
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.06
6.02.03.06.03
The ACBS cooling and heater circuit must be compatible with the existing RHIC cryogenic system.
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.07
6.02.03.06.03
The ACBS and extraction piping shall meet the B31.3 cryogenic process piping requirements given the following criteria for fatigue as identified in requirement P-HSR-VAC-CRYOMOD.07.0X..
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.07.01
6.02.03.06.03
The thermal fatigue load shall be 120 cycles consisting of 4 cycles per year over 30 years.
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.07.02
6.02.03.06.03
The pressure fatigue load shall be 3,000 cycles at normal operating pressure of 4 (atm) consisting of 100 cycles per year over 30 years.
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.07.03
6.02.03.06.03
The design fatigue load (pressure test and quenches) shall be 240 cycles at 18.6 (atm) consisting of 8 cycles per year over 30 years.
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.08
6.02.03.06.03
The tubing supports shall be properly placed to keep resonance modes greater than 15 (Hz).
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.09
6.02.03.06.03
The ACBS cryogenic piping and component welds shall be helium leaked checked to less than 2 x 10-10 std cc (He/sec)
07/06/2026
Approved
FALSE

P-HSR-VAC-CRYOMOD.10
The ACBS cooling circuit shall be designed to allow degassing of all 5 cooling zones in an arc sextant concurrently (magnets; Q4 to Q4).
07/06/2026
In Process
FALSE

P-HSR-VAC-CRYOMOD.11
The ACBS cooling system controls shall have interlocks to ensure that the cryovalve is closed and the heater is off before cooldown or warmup is allowed to start.
07/06/2026
In Process
FALSE

P-HSR-VAC-CRYOMOD.12
The ACBS cooling system controls shall have an interlock to provide thermal protection for the heater.
07/06/2026
In Process
FALSE

HSR-MAG : HSR Magnet (WBS 6.02.03.10)

HSR-MAG-D5I : HSR Dipole Magnet (D5I) (WBS 6.02.03.10)

P-HSR-MAG-D5I.01.01
6.02.03.10
The dipole shall be a RHIC Magnet D5I Dipole in a 'D5I' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 6.92(m).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.02.01
6.02.03.10
The Magnet Dipole field (B) shall be 3.458(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.02.03
6.02.03.10
The magnet ramp rate shall be 25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) Should be: Ref#1: Rr=80(mm), Ir=660(A) Ref#2: Rr=80(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.02
6.02.03.10
b2=tbd, a2=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.03
6.02.03.10
b3=tbd, a3=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.04
6.02.03.10
b4=tbd, a4=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.05
6.02.03.10
b5=tbd, a5=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.06
6.02.03.10
b6=tbd, a6=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.07
6.02.03.10
b7=tbd, a7=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.08
6.02.03.10
b8=tbd, a8=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.09
6.02.03.10
b9=tbd, a9=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.03.03.10
6.02.03.10
b10=tbd, a10=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5I.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D5I.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D5I.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D5I.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D5I.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D5I.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Dipoles when connected in their normal series shall have a leakage current less that <1 (mA) with a 800(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

HSR-MAG-D5I EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D5I.03
6.02.03.10
The magnet is a (D5I) RHIC Dipole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5I.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5I.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5I.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5I.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-D5O : HSR Dipole Magnet (D5O) (WBS 6.02.03.10)

P-HSR-MAG-D5O.01.01
6.02.03.10
The Dipole shall be a 'D5O' RHIC Magnet in a 'D5O' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 8.71 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.02.01
6.02.03.10
The Magnet Dipole field (B) shall be 3.458(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.02.03
6.02.03.10
The magnet ramp rate shall be 25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) Should be: Ref#1: Rr=80(mm), Ir=660(A) Ref#2: Rr=80(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.01
6.02.03.10
Ref#1: b1=10000,a1=0Ref#2: b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.02
6.02.03.10
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81Ref#2: -0.18<b2<0.38, -3.02<a2<0
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.03
6.02.03.10
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.04
6.02.03.10
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.05
6.02.03.10
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.06
6.02.03.10
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.07
6.02.03.10
Ref#1: -0.26<b7<0, -0.12<a7<-0.08Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.08
6.02.03.10
Ref#1: -0.02<b8<0, -0.06<a8<0.04Ref#2: -0.02<b8<0, -0.06<a8<0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.09
6.02.03.10
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03Ref#2: 0<b9<0.24, 0.01<a9<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.03.03.10
6.02.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06Ref#2: 0<b10<0.04, 0.02<a10<0.06
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5O.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5O.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5O.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5O.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5O.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Dipoles when connected in their normal series shall have a leakage current less that <1 (mA) with a 800(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

HSR-MAG-D5O EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D5O.03
6.02.03.10
The magnet is a (D5O) RHIC Dipole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5O.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D5O.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D5O.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-D5O.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-D8 : HSR Dipole Magnet (D8) (WBS 6.02.03.10)

P-HSR-MAG-D8.01.01
6.02.03.10
The dipole shall be a RHIC Magnet DR8 Dipole in a 'D8' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 9.45(m).
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.01.09
6.02.03.10
The magnet pole tip radius shall be 40(mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.02.01
6.02.03.10
The Magnet Dipole field (B) shall be 3.458(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.02.03
6.02.03.10
The magnet ramp rate shall be 25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Ref#1:Rr=80(mm), Ir=660(A) Ref#2:Rr=80(mm), Ir=5000(A)
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.01
6.02.03.10
Ref#1: b1=10000,a1=0 Ref#2: b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.02
6.02.03.10
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81 Ref#2: -0.18<b2<0.38, -3.02<a2<0
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.03
6.02.03.10
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86 Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.04
6.02.03.10
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39 Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.05
6.02.03.10
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27 Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.06
6.02.03.10
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17 Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.07
6.02.03.10
Ref#1: -0.26<b7<0, -0.12<a7<-0.08 Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.08
6.02.03.10
Ref#1: -0.02<b8<0, -0.06<a8<0.04 Ref#2: -0.02<b8<0, -0.06<a8<0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.09
6.02.03.10
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03 Ref#2: 0<b9<0.24, 0.01<a9<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.03.03.10
6.02.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06 Ref#2: 0<b10<0.04, 0.02<a10<0.06
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Dipoles when connected in their normal series shall have a leakage current less that <1 (mA) with a 800(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

HSR-MAG-D8 EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D8.03
6.02.03.10
The magnet is a (D8) RHIC Dipole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D8.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-D8.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-D8.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-D96 : HSR Dipole Magnet (D9/D6) (WBS 6.02.03.10)

P-HSR-MAG-D96.01.01
6.02.03.10
The Dipole shall be a 'D9\6' RHIC Magnet in a 'D96' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 2.95 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.02.01
6.02.03.10
The Magnet Dipole field (B) shall be 3.458(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.02.03
6.02.03.10
The magnet ramp rate shall be 25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) Should be: Ref#1: Rr=80(mm), Ir=660(A) Ref#2: Rr=80(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.01
6.02.03.10
Ref#1: b1=10000,a1=0Ref#2: b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.02
6.02.03.10
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81Ref#2: -0.18<b2<0.38, -3.02<a2<0
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.03
6.02.03.10
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.04
6.02.03.10
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.05
6.02.03.10
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.06
6.02.03.10
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.07
6.02.03.10
Ref#1: -0.26<b7<0, -0.12<a7<-0.08Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.08
6.02.03.10
Ref#1: -0.02<b8<0, -0.06<a8<0.04Ref#2: -0.02<b8<0, -0.06<a8<0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.09
6.02.03.10
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03Ref#2: 0<b9<0.24, 0.01<a9<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.03.03.10
6.02.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06Ref#2: 0<b10<0.04, 0.02<a10<0.06
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D96.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D96.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D96.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D96.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D96.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Dipoles when connected in their normal series shall have a leakage current less that <1 (mA) with a 800(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

HSR-MAG-D96 EXTERNALS
Requirements who's parents are in other sub-systems.

P-HSR-MAG-D96.03
6.02.03.10
The magnet is a (D96) RHIC Dipole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
Not Applicable
FALSE

P-HSR-MAG-D96.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-D96.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-D96.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-DRG : HSR Dipole Magnet (DRG) (WBS 6.02.03.10)

P-HSR-MAG-DRG.01.01
The magnet shall be a RHIC DRG Dipole.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.01.06
The existing magnet length is 9.45 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.02.01
The Magnet Dipole field (B) shall be 3.9 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.02.03
The magnet ramp rate shall be 25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03
The magnet is a DRG RHIC Dipole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should beRef#1: Rr=80 (mm), Ir=660 (A)Ref#2: Rr=80 (mm), Ir=5000 (A)
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.01
Ref#1: b1=10000. a1=0Ref#2: b1=10000. a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.02
Ref#1: -0.2<b2<0.36, -1.25<a2<1.81Ref#2: -0.18<b2<0.38, -3.02<a2<0
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.03
Ref#1: -2.39<b3<2.05, -1.2<a3<-0.86Ref#2: -0.93<b3<2.59, -1.25<a3<-0.89
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.04
Ref#1: -0.08<b4<0.08, -0.45<a4<0.39Ref#2: -0.07<b4<0.09, -0.77<a4<0.05
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.05
Ref#1: -0.9<b5<0.24, 0.15<a5<0.27Ref#2: -0.44<b5<0.74, 0.14<a5<0.26
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.06
Ref#1: -0.03<b6<0.03, -0.13<a6<0.17Ref#2: -0.07<b6<0.01, -0.22<a6<0.1
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.07
Ref#1: -0.26<b7<0, -0.12<a7<-0.08Ref#2: 1.05<b7<1.33, -0.12<a7<-0.08
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.08
Ref#1: -0.02<b8<0, -0.06<a8<0.04Ref#2: -0.02<b8<0, -0.06<a8<0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.09
Ref#1: 0.02<b9<0.26, 0.01<a9<0.03Ref#2: 0<b9<0.24, 0.01<a9<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.03.03.10
Ref#1: 0<b10<0.04, 0.02<a10<0.06Ref#2: 0<b10<0.04, 0.02<a10<0.06
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Dipoles when connected in their normal series shall have a leakage current less than <1 (mA) with a 800 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-DRG.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-SNAKE : HSR Snake Magnet (HLX_Snake) (WBS 6.02.03.10)

P-HSR-MAG-SNAKE.01.01
6.02.03.10
The Solenoid shall be a 'HLX' RHIC Magnet in a 'Snake' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 10.4 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.01.09
6.02.03.10
The magnet pole tip radius shall be 50 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.01.11
6.02.03.10
TBD
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.02.01
6.02.03.10
The magnet dipole field (B) shall be 4 (T).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.02.03
6.02.03.10
The magnet maximum ramp rate shall be 0.5 (A/s).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03
6.02.03.10
The magnet is a HLX(Snake) RHIC Magnet, the multipole homogeneity measurements and transfer function are as maintained in the BNL magnet repository. All refurbished magnets shall meet the homogenity requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=329(A).
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03.03.02
6.02.03.10
< Requirement Not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.03.03.04
6.02.03.10
< Requirement Not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.04
6.02.03.10
< Requirement Not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.05
6.02.03.10
The magnet is a HLX(Snake) RHIC Magnet, the Magnet-Fringe-field calculations are as maintained in the BNL magnet repository. All refurbished magnets shall meet the Fring feild requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 g/s, between 3.5bar and 4 bar, and at a temperature below 4.7K.
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions using supercritical helium between 3.5 bar and 4 bar, and at a temperature of less than 4.7K.
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of 3.7 W while operating at nominal conditions between 3.5 bar and 4 bar and a temperature less than 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06.04
6.02.03.10
The magnet current leads cooling shall be capable of removing a maximum total heat load of 1.2W at the cold end while maintaining nominal operating conditions between 3.5 bar and 4 bar and below 4.7 (K), and lead cooling flow of 0.03 g/s for currents upto 300A, and above 300A the current shall ramp with a slope of 0.00012 (g/s)/(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325 bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a 50 K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and the magnet quench perfromance SHALL be no worse than existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.08.01
6.02.03.10
The magnet coils shall pass a Hi-Pot test at nominal operating conditions corresponding to the exsisting RHIC Helicoil magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.08.02
6.02.03.10
The magnet shall be delivered with the exsisting RHIC helicoil Magnet-Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-SNAKE.08.03
6.02.03.10
All SC magnet Splice resistances shall be no worse than the existing RHIC helicoil magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.09
6.02.03.10
The magnet is expected to sustain 30 years of EIC operation under nominal conditions.
02/09/2026
Approved
FALSE

P-HSR-MAG-SNAKE.10
6.02.03.10
The magnet shall be designed with components capable to withstand a lifetime radiation dose of XXX MGy.
07/06/2026
Approved
FALSE

HSR-MAG-SPINROTATOR : HSR SpinRotator Magnet (HLX_SpinRotator) (WBS 6.02.03.10)

P-HSR-MAG-SPINROTATOR.01.01
6.02.03.10
The Solenoid shall be a 'HLX' RHIC Magnet in a 'Spin Rotator' RHIC Magnet Assembly.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 10.4 (m).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.01.09
6.02.03.10
The magnet pole tip radius shall be 50 (mm).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.01.11
6.02.03.10
TBD
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.02.01
6.02.03.10
The magnet dipole field (B) shall be 4 (T).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.02.03
6.02.03.10
The magnet ramp rate shall be TBD. ( 0.5 (A/s))
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.02.07
6.02.03.10
TBD
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.03
6.02.03.10
The magnet is a HLX(Spin Rotator) RHIC Magnet, the multipole homogeneity measurements and transfer function are as maintained in the BNL magnet repository. All refurbished magnets shall meet the homogenity requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=329(A).
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.05
6.02.03.10
The magnet is a HLX(Spin Rotator) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository. All refurbished magnets shall meet the Fring feild requirements exhibited by the existing RHIC magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions by forced flow of supercritical helium, at a flowrate greater than 100 g/s, between 3.5bar and 4 bar, and at a temperature below 4.7K.
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of supercritical helium between 3.5 bar and 4 bar and 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of 3.7 W while maintaining nominal operating conditions between 3.5 bar and 4 bar and 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06.04
6.02.03.10
The magnet current leads cooling shall be capable of removing a maximum total heat load of 1.2 W at the cold end while maintaining nominal operating conditions between 3.5 bar and 4.0 bar and 4.7 (K), and cooling flow of 0.032 g/s upto a current of 360A, and above 360A, the flow will ramp with slope of 0.00012 (g/s)/(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.8 bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.01325bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and the magnet quench perfromance SHALL be no worse than existing RHIC HLX(Spin Rotator) magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.08.01
6.02.03.10
The magnet coils shall pass a Hi-Pot test at nominal operating conditions corresponding to the exsisting RHIC HLX(Spin Rotator) magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.08.02
6.02.03.10
The magnet shall be delivered with the exsisting RHIC HLX(Spin Rotator) Magnet-Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.08.03
6.02.03.10
All SC magnet Splice resistances shall be no worse than the existing RHIC HLX(Spin Rotator) magnets.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.09
6.02.03.10
The magnet is expected to sustain 30 years of EIC operation under nominal conditions.
02/09/2026
Approved
FALSE

P-HSR-MAG-SPINROTATOR.10
6.02.03.10
The magnet shall be designed with components capable to withstand a lifetime radiation dose of XXX MGy.
07/06/2026
Approved
FALSE

HSR-MAG-CQS

HSR-MAG-CQS-Q:QRG : HSR CQS Quadrupole Magnet Component (CQS_QRG_Q9) (WBS 6.02.03.10)

P-HSR-MAG-CQS-Q:QRG.01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.13 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03
6.02.03.10
The magnet is a CQS(QRG) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.04
6.02.03.10
The magnet is a CQS(QRG) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.05
6.02.03.10
The magnet is a CQS(QRG) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-Q:QRG.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
07/06/2026
Approved
FALSE

HSR-MAG-CQS-QGT:CRB : HSR CQS GammaT Quadrupole Magnet Component (CQS_CRB_QGT) (WBS 6.02.03.10)

P-HSR-MAG-CQS-QGT:CRB.01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.03
6.02.03.10
The magnet is a CQS(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.04
6.02.03.10
The magnet is a CQS(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.05
6.02.03.10
The magnet is a CQS(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QGT:CRB.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
07/06/2026
Approved
FALSE

HSR-MAG-CQS-QS:CRC : HSR CQS Skew Quadrupole Magnet Component (CQS_CRC_QS) (WBS 6.02.03.10)

P-HSR-MAG-CQS-QS:CRC.01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.03
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.03.03.02
6.02.03.10
b2=0,a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.04
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.05
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
07/06/2026
Approved
FALSE

HSR-MAG-CQS-SX:SRE : HSR CQS Sextupole Magnet Component (CQS_SRE_SX) (WBS 6.02.03.10)

P-HSR-MAG-CQS-SX:SRE.01.01
6.02.03.10
The Sextupole shall be a 'SRE' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.02.02
6.02.03.10
The magnet gradient field (G) shall be 1150 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m^2.s.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03
6.02.03.10
The magnet is a CQS(SRE) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=31(mm), Ir=25(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.03.03
6.02.03.10
b3=10000,a3=0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.03.04
6.02.03.10
-1.41<b3<0.87, -2.88<a3<2.76
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.03.05
6.02.03.10
-5.95<b4<-3.21, -1.31<a4<1.03
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.03.06
6.02.03.10
0.03<b5<0.45, -0.86<a5<1.16
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.03.07
6.02.03.10
-3.22<b6<-2.12, -0.66<a6<0.42
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.03.03.09
6.02.03.10
-90.49<b8<-90.11, -0.43<a8<-0.19
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.04
6.02.03.10
The magnet is a CQS(SRE) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.05
6.02.03.10
The magnet is a CQS(SRE) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-SX:SRE.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
07/06/2026
Approved
FALSE

HSR-MAG-CQS-TH:CRF : HSR CQS Horizontal Corrector Magnet Component (CQS_CRF_TH) (WBS 6.02.03.10)

P-HSR-MAG-CQS-TH:CRF.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRF' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.03
6.02.03.10
The magnet is a CQS(CRF) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.04
6.02.03.10
The magnet is a CQS(CRF) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.05
6.02.03.10
The magnet is a CQS(CRF) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TH:CRF.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
07/06/2026
Approved
FALSE

HSR-MAG-CQS-TV:CRC : HSR CQS Vertical Corrector Magnet Component (CQS_CRC_TV) (WBS 6.02.03.10)

P-HSR-MAG-CQS-TV:CRC.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQS' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.03
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.04
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.05
6.02.03.10
The magnet is a CQS(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-TV:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
07/06/2026
Approved
FALSE

HSR-MAG-CQS-OCT:CRC : HSR CQS Octupole Magnet Component (CQS_CRC_OCT)

P-HSR-MAG-CQS-OCT:CRC.01.01
The magnet shall be a RHIC CRC Octupole Corrector in the 'CQS' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03
The magnet is a CQ9 (CRC) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRC.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-CQS-OCT:CRF : HSR CQS Octupole Magnet Component (CQS_CRF_OCT)

P-HSR-MAG-CQS-OCT:CRF.01.01
The magnet shall be a RHIC CRF Octupole Corrector in the 'CQS' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03
The magnet is a CQ9 (CRF) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-OCT:CRF.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-CQS-QS:CRF : HSR CQS Octupole Magnet Component (CQS_CRF_QS)

P-HSR-MAG-CQS-QS:CRF.01.01
The Skew Quad shall be a RHIC CRF Skew quadrupole Corrector in the 'CQS' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.02.02
The Gamma T quadrupole gradient field (G) shall be 2.23 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.02.03
The magnet ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.03
The magnet is a CQS (CRF) RHIC Skew Quadrupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.03.03.01
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.03.03.02
b2=0. a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.03.03.03
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.03.03.04
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-CQS-QS:CRF.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-DW0 : HSR Dipole Magnet (DWO)

HSR-MAG-Q1

HSR-MAG-Q1-Q:QRI : HSR Q1 Large Aperture Magnet(CQ1_QRI_Q1) (WBS 6.02.03.10)

P-HSR-MAG-Q1-Q:QRI.01.01
6.02.03.10
The Quadrupole shall be a 'QRI' RHIC Magnet in a 'CQ1' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.44 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.02.02
6.02.03.10
The magnet gradient field (G) shall be 48.1 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.02.03
6.02.03.10
The magnet ramp rate shall be 24.79(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03
6.02.03.10
The magnet is a CQ1(QRI) RHIC Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40(mm), Ir=5000A.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.03
6.02.03.10
-0.3<b3<0.58, -0.79<a3<0.33
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.04
6.02.03.10
-0.58<b4<0.3, -0.27<a4<0.23
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.05
6.02.03.10
-0.23<b5<0.27, -0.37<a5<0.21
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.06
6.02.03.10
1.56<b6<2.74, -0.86<a6<-0.62
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.07
6.02.03.10
-0.19<b7<0.25, -0.09<a7<0.49
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.08
6.02.03.10
-0.32<b8<0.04, -0.12<a8<0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.09
6.02.03.10
-0.03<b9<0.07, -0.07<a9<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.03.03.10
6.02.03.10
-0.27<b10<0.07, 0.16<a10<0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q1-Q:QRI.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q1-Q:QRI.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q1-Q:QRI.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q1-Q:QRI.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q1-Q:QRI.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q1-Q:QRI.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q1-Q:QRI.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q1-Q:QRI.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2

HSR-MAG-Q2-Q:CRI : HSR Q2 Large Aperture Quadrupole Magnet Component (CQ2_QRK_Q2) (WBS 6.02.03.10)

P-HSR-MAG-Q2-Q:CRI.01.01
6.02.03.10
The Quadrupole shall be a 'QRK' RHIC Magnet in a 'CQ2' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 3.4 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.02.02
6.02.03.10
The magnet gradient field (G) shall be 47.1 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.02.03
6.02.03.10
The magnet ramp rate shall be 24.79(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03
6.02.03.10
The magnet is a CQ2(QRK) RHIC Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40(mm), Ir=5000A.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.03
6.02.03.10
-0.51<b3<0.35, -0.69<a3<0.33
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.04
6.02.03.10
-1.43<b4<-1.05, -0.09<a4<0.35
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.05
6.02.03.10
-0.14<b5<0.3, -0.23<a5<0.33
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.06
6.02.03.10
0.15<b6<0.91, -0.36<a6<0.18
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.07
6.02.03.10
-0.17<b7<0.21, -0.09<a7<0.35
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.08
6.02.03.10
-0.23<b8<-0.05, -0.11<a8<0.09
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.09
6.02.03.10
-0.05<b9<0.05, -0.06<a9<0.06
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.03.03.10
6.02.03.10
-0.44<b10<-0.3, 0.03<a10<0.07
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-Q:CRI.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-Q:CRI.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-Q:CRI.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-Q:CRI.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-Q:CRI.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-Q:CRI.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-Q:CRI.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-Q:CRI.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-TH:CRI : HSR Q2 Large Aperture Horizontal Corrector Magnet Component (CQ2_CRI_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q2-TH:CRI.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRI' RHIC Magnet in a 'CQ2' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.02.01
6.02.03.10
The vertical dipole field (B) shall be 057(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.02.03
6.02.03.10
The magnet ramp rate shall be 0.25A/s
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03
6.02.03.10
The magnet is a CQ2(CRI) RHIC Horizontal Corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03.03.05
6.02.03.10
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.03.03.06
6.02.03.10
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TH:CRI.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TH:CRI.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TH:CRI.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TH:CRI.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TH:CRI.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TH:CRI.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TH:CRI.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TH:CRI.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-TV:CRJ : HSR Q2 Large Aperture Horizontal Corrector Magnet Component (CQ2_CRJ_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q2-TV:CRJ.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRJ' RHIC Magnet in a 'CQ2' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.02.01
6.02.03.10
The horizontal dipole field (B) shall be 0.57(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03
6.02.03.10
The magnet is a CQ2(CRJ) RHIC Vertical corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.03.05
6.02.03.10
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.03.03.06
6.02.03.10
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TV:CRJ.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TV:CRJ.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q2-TV:CRJ.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-TV:CRJ.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-DEC:CRI : HSR Q2 Large Aperture Decapole Magnet Component (CQ2_CRI_DEC)

P-HSR-MAG-Q2-DEC:CRI.01.01
The magnet shall be a RHIC CRI Decapole Corrector in the 'Q2' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.02.02
The magnet Decapole corrector gradient field (G) shall be 0.26 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.02.03
The Decapole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03
The magnet is a CQ2 (CRI) RHIC Decapole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03.03.03
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03.03.04
b5=10000. a5=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRI.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-DEC:CRJ : HSR Q2 Large Aperture Decapole Magnet Component (CQ2_CRJ_DEC)

P-HSR-MAG-Q2-DEC:CRJ.01.01
The magnet shall be a RHIC CRJ Decapole Corrector in the 'Q2' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.02.02
The magnet Decapole corrector gradient field (G) shall be 0.26 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.02.03
The Decapole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03
The magnet is a CQ2 (CRJ) RHIC Decapole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03.03.03
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03.03.04
b5=10000. a5=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DEC:CRJ.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-DOD:CRI : HSR Q2 Large Aperture Dodecapole Magnet Component (CQ2_CRI_DOD)

P-HSR-MAG-Q2-DOD:CRI.01.01
The magnet shall be a RHIC CRI DoDecapole Corrector in the 'Q2' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.02.02
The magnet Dodecapole corrector gradient field (G) shall be 0.206 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.02.03
The Dodecapole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03
The magnet is a CQ2 (CRI) RHIC Dodecapole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03.03.03
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.03.03.05
b6=10000. a6=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRI.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-DOD:CRJ : HSR Q2 Large Aperture Dodecapole Magnet Component (CQ2_CRJ_DOD)

P-HSR-MAG-Q2-DOD:CRJ.01.01
The magnet shall be a RHIC CRJ DoDecapole Corrector in the 'Q2' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.02.02
The magnet Dodecapole corrector gradient field (G) shall be 0.206 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.02.03
The Dodecapole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03
The magnet is a CQ2 (CRJ) RHIC Dodecapole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03.03.03
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.03.03.05
b6=10000. a6=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-DOD:CRJ.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-OCT:CRI : HSR Q2 Large Aperture Octupole Magnet Component (CQ2_CRI_OCT)

P-HSR-MAG-Q2-OCT:CRI.01.01
The magnet shall be a RHIC CRI Octupole Corrector in the 'Q2' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03
The magnet is a CQ2 (CRI) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRI.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q2-OCT:CRJ : HSR Q2 Large Aperture Octupole Magnet Component (CQ2_CRJ_OCT)

P-HSR-MAG-Q2-OCT:CRJ.01.01
The magnet shall be a RHIC CRJ Octupole Corrector in the 'Q2' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03
The magnet is a CQ2 (CRJ) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q2-OCT:CRJ.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3

HSR-MAG-Q3-Q:QRJ : HSR Q3 Large Aperture Quadrupole Magnet Component (CQ3_QRJ_Q3) (WBS 6.02.03.10)

P-HSR-MAG-Q3-Q:QRJ.01.01
6.02.03.10
The Quadrupole shall be a 'QRJ' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 2.1 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.02.02
6.02.03.10
The magnet gradient field (G) shall be 47.3 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.02.03
6.02.03.10
The magnet ramp rate shall be 24.79(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03
6.02.03.10
The magnet is a CQ3(QRJ) RHIC Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40(mm), Ir=5000A.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.03
6.02.03.10
-0.72<b3<0.74, -0.19<a3<0.99
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.04
6.02.03.10
-0.85<b4<0.17, -0.21<a4<0.45
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.05
6.02.03.10
-0.46<b5<0, -0.09<a5<0.21
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.06
6.02.03.10
1.54<b6<1.8, -0.34<a6<-0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.07
6.02.03.10
-0.1<b7<0.24, -0.1<a7<0.28
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.08
6.02.03.10
-0.13<b8<0.13, -0.08<a8<0.06
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.09
6.02.03.10
-0.01<b9<0.11, -0.02<a9<0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.03.03.10
6.02.03.10
-0.34<b10<-0.28, 0.06<a10<0.1
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-Q:QRJ.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-Q:QRJ.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-Q:QRJ.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-Q:QRJ.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-QS:CRK : HSR Q3 Large Aperture Skew Quadrupole Magnet Component (CQ3_CRK_QS) (WBS 6.02.03.10)

P-HSR-MAG-Q3-QS:CRK.01.01
6.02.03.10
The Skew-Quad shall be a 'CRK' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.02.01
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.02.02
6.02.03.10
The skew quadrupole gradient field (G) shall be 2.72(T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03
6.02.03.10
The magnet is a CQ3(CRK) RHIC Skew Quadrupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rref=TBD(mm) \ TBD (A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.02
6.02.03.10
b2=tbd, a2=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.03
6.02.03.10
b3=tbd, a3=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.04
6.02.03.10
b4=tbd, a4=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.05
6.02.03.10
b5=tbd, a5=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.06
6.02.03.10
b6=tbd, a6=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.07
6.02.03.10
b7=tbd, a7=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.08
6.02.03.10
b8=tbd, a8=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.09
6.02.03.10
b9=tbd, a9=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.03.03.10
6.02.03.10
b10=tbd, a10=tbd
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-QS:CRK.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-QS:CRK.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-TH:CRL : HSR Q3 Large Aperture Horizontal Corrector Magnet Component (CQ3_CRL_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q3-TH:CRL.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRL' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.02.01
6.02.03.10
The vertical dipole field (B) shall be 057(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.02.03
6.02.03.10
The magnet ramp rate shall be 0.25A/s
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03
6.02.03.10
The magnet is a CQ3(CRL) RHIC Horizontal corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03.03.05
6.02.03.10
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.03.03.06
6.02.03.10
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TH:CRL.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TH:CRL.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TH:CRL.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TH:CRL.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TH:CRL.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TH:CRL.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TH:CRL.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TH:CRL.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-TV:CRM : HSR Q3 Large Aperture Vertical Corrector Magnet Component (CQ3_CRM_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q3-TV:CRM.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRM' RHIC Magnet in a 'CQ3' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.01.09
6.02.03.10
The magnet pole tip radius shall be 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.02.01
6.02.03.10
The horizontal dipole field (B) shall be 0.57(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03
6.02.03.10
The magnet is a CQ3(CRM) RHIC Vertical corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.03.05
6.02.03.10
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.03.03.06
6.02.03.10
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TV:CRM.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TV:CRM.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TV:CRM.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TV:CRM.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TV:CRM.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TV:CRM.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q3-TV:CRM.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-TV:CRM.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-DOD:CRL : HSR Q3 Large Aperture Dodecapole Magnet Component (CQ3_CRL_DOD)

P-HSR-MAG-Q3-DOD:CRL.01.01
The magnet shall be a RHIC CRL DoDecapole Corrector in the 'Q3' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.02.02
The magnet Dodecapole corrector gradient field (G) shall be 0.206 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.02.03
The Dodecapole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03
The magnet is a CQ3 (CRI) RHIC Dodecapole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03.03.03
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.03.03.05
b6=10000. a6=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRL.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-DOD:CRM : HSR Q3 Large Aperture Dodecapole Magnet Component (CQ3_CRM_DOD)

P-HSR-MAG-Q3-DOD:CRM.01.01
The magnet shall be a RHIC CRM DoDecapole Corrector in the 'Q3' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.02.02
The magnet Dodecapole corrector gradient field (G) shall be 0.206 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.02.03
The Dodecapole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03
The magnet is a CQ3 (CRM) RHIC Dodecapole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03.03.03
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.03.03.05
b6=10000. a6=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-DOD:CRM.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-OCT:CRL : HSR Q3 Large Aperture Octupole Magnet Component (CQ2_CRL_OCT)

P-HSR-MAG-Q3-OCT:CRL.01.01
The magnet shall be a RHIC CRL Octupole Corrector in the 'Q3' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03
The magnet is a CQ3 (CRL) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRL.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-OCT:CRM : HSR Q3 Large Aperture Octupole Magnet Component (CQ2_CRM_OCT)

P-HSR-MAG-Q3-OCT:CRM.01.01
The magnet shall be a RHIC CRM Octupole Corrector in the 'Q3' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.02.03
The Vertical corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03
The magnet is a CQ3 (CRM) RHIC Vertical corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=~50 (A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.03.01
b1=0. a1=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.03.02
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.03.03
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.03.04
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.03.05
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.03.03.06
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-OCT:CRM.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-SX:CRK : HSR Q3 Large Aperture Sextupole Magnet Component (CQ3_CRK_SX)

P-HSR-MAG-Q3-SX:CRK.01.01
The magnet shall be a RHIC CRK Sextupole Corrector in the 'Q3' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.02.02
The magnet sextupole corrector gradient field (G) shall be 1.03 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.02.03
The Sextupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03
The magnet is a CQ3 (CRK) RHIC Sextupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03.03.02
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03.03.03
b3=10000. a3=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03.03.04
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03.03.05
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.03.03.06
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less than <1 (mA) with a 450 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRK.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-SX:CRL : HSR Q3 Large Aperture Sextupole Magnet Component (CQ3_CRL_SX)

P-HSR-MAG-Q3-SX:CRL.01.01
The magnet shall be a RHIC CRL Sextupole Corrector in the 'Q3' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.02.02
The magnet sextupole corrector gradient field (G) shall be 1.03 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.02.03
The Sextupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03
The magnet is a CQ3 (CRL) RHIC Sextupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03.03.02
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03.03.03
b3=10000. a3=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03.03.04
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03.03.05
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.03.03.06
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less than <1 (mA) with a 450 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRL.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q3-SX:CRM : HSR Q3 Large Aperture Sextupole Magnet Component (CQ3_CRM_SX)

P-HSR-MAG-Q3-SX:CRM.01.01
The magnet shall be a RHIC CRM Sextupole Corrector in the 'Q3' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.01.09
The existing magnet bore inner radius is 65 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.02.02
The magnet sextupole corrector gradient field (G) shall be 1.03 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.02.03
The Sextupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03
The magnet is a CQ3 (CRM) RHIC Sextupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03.03.02
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03.03.03
b3=10000. a3=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03.03.04
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03.03.05
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.03.03.06
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less than <1 (mA) with a 450 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q3-SX:CRM.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q4

HSR-MAG-Q4-Q:QR4 : HSR Q4 Quadrupole Magnet Component (CQ4_QR4_Q4) (WBS 6.02.03.10)

P-HSR-MAG-Q4-Q:QR4.01.01
6.02.03.10
The Quadrupole shall be a 'QR4' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.81 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.02.03
6.02.03.10
The magnet ramp rate shall be 24.79(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03
6.02.03.10
The magnet is a CQ4(QR4) RHIC Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be:Ref#1: Rr=25(mm), Ir=10(A)Ref#2: Rr=25(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0Ref#2: b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43Ref#2:-2<b4<0.78, -0.67<a4<1.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54Ref#2:-1<b5<2.14, -1.66<a5<1.14
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-Q:QR4.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-Q:QR4.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-Q:QR4.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-Q:QR4.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-Q:QR4.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-Q:QR4.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-Q:QR4.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-Q:QR4.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q4-SQ:CRF I(remove) : HSR Q4 Skew Quadrupole Magnet Component (CQ4_CRF_QS) (WBS 6.02.03.10)

HSR-MAG-Q4-TH:CRF : HSR Q4 Horizontal Corrector Magnet Component (CQ4_CRF_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q4-TH:CRF.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRF' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.02.01
6.02.03.10
The vertical dipole field (B) shall be 0.577(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.02.03
6.02.03.10
The magnet ramp rate shall be 0.25A/s
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.03
6.02.03.10
The magnet is a CQ4(CRF) RHIC Horizontal corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TH:CRF.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TH:CRF.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TH:CRF.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TH:CRF.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TH:CRF.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TH:CRF.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TH:CRF.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TH:CRF.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q4-TQ:QRT : HSR Q4 Quadrupole Trim Magnet Component (CQ4_QRT_TQ) (WBS 6.02.03.10)

P-HSR-MAG-Q4-TQ:QRT.01.01
6.02.03.10
The Quadrupole shall be a 'QRT' trim Quadrupole RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.02.02
6.02.03.10
The magnet gradient field (G) shall be 29.4 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.02.03
6.02.03.10
The magnet ramp rate shall be 0.49(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03
6.02.03.10
The magnet is a CQ4(QRT) RHIC Trim Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=31(mm), Ir=25(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.03.03
6.02.03.10
0.01<b3<1.38, -2.35<a3<0.67
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.03.04
6.02.03.10
-4.56<b4<-3.4, -0.24<a4<0.16
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.03.05
6.02.03.10
-0.2<b5<0.14, -0.13<a5<0.26
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.03.06
6.02.03.10
-10.47<b6<-9.97, -0.27<a6<-0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.03.03.10
6.02.03.10
0.09<b10<-1.55, 0.03<a10<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TQ:QRT.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TQ:QRT.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TQ:QRT.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TQ:QRT.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q4-TV:CRC : HSR Q4 Vertical Corrector Magnet Component (CQ4_CRC_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q4-TV:CRC.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.02.01
6.02.03.10
The horizontal dipole field (B) shall be 0.577(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.03
6.02.03.10
The magnet is a CQ4(CRC) RHIC Vertical corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TV:CRC.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TV:CRC.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TV:CRC.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TV:CRC.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TV:CRC.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TV:CRC.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-TV:CRC.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-TV:CRC.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q4-OCT:CRC : HSR Q4 Octupole Magnet Component (CQ4_CRC_OCT)

P-HSR-MAG-Q4-OCT:CRC.01.01
The magnet shall be a RHIC CRC Octupole Corrector in the 'Q4' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03
The magnet is a CQ4 (CRC) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRC.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q4-OCT:CRF : HSR Q4 Octupole Magnet Component (CQ4_CRF_OCT)

P-HSR-MAG-Q4-OCT:CRF.01.01
The magnet shall be a RHIC CRF Octupole Corrector in the 'Q4' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03
The magnet is a CQ4 (CRF) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-OCT:CRF.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q4-SQ:CRF

P-HSR-MAG-Q4-SQ:CRF.01.01
6.02.03.10
The Skew-Quad shall be a 'CRF' RHIC Magnet in a 'CQ4' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.02.01
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.02.02
6.02.03.10
The skew quadrupole gradient field (G) shall be 2.72(T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.03
6.02.03.10
The magnet is a CQ4(CRF) RHIC Skew Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.03.03.02
6.02.03.10
b2=0,a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q4-SQ:CRF.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q4-SQ:CRF.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5

HSR-MAG-Q5-Q:QRG : HSR Q5 Quadrupole Magnet Component (CQ5_QRG_Q5) (WBS 6.02.03.10)

P-HSR-MAG-Q5-Q:QRG.01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.1 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.02.03
6.02.03.10
The magnet ramp rate shall be 24.79(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03
6.02.03.10
The magnet is a CQ5(QRG) RHIC Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0Ref#2: b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43Ref#2:-2<b4<0.78, -0.67<a4<1.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54Ref#2:-1<b5<2.14, -1.66<a5<1.14
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-Q:QRG.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-Q:QRG.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-Q:QRG.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-Q:QRG.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-Q:QRG.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-Q:QRG.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-Q:QRG.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-Q:QRG.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5-QGT:CRB : HSR Q5 GammaT Quadrupole Magnet Component (CQ5_CRB_QGT) (WBS 6.02.03.10)

P-HSR-MAG-Q5-QGT:CRB.01.01
6.02.03.10
The Gamma-T-Quad shall be a 'CRB' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.02.01
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.02.02
6.02.03.10
The Gamma T quadrupole gradient field (G) shall be 2.72(T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.02.03
6.02.03.10
The magnet ramp rate shall be 4347(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.03
6.02.03.10
The magnet is a CQ5(CRB) RHIC Gamma-T Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QGT:CRB.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QGT:CRB.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5-QS:CRC : HSR Q5 Skew Quadrupole Magnet Component (CQ5_CRC_QS) (WBS 6.02.03.10)

P-HSR-MAG-Q5-QS:CRC.01.01
6.02.03.10
The Skew-Quad shall be a 'CRC' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.02.01
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.02.02
6.02.03.10
The skew quadrupole gradient field (G) shall be 2.72(T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.03
6.02.03.10
The magnet is a CQ5(CRC) RHIC Skew Quadrupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.03.03.02
6.02.03.10
b2=0,a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-QS:CRC.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-QS:CRC.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5-TH:CRB : HSR Q5 Horizontal Corrector Magnet Component (CQ5_CRB_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q5-TH:CRB.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.02.01
6.02.03.10
The vertical dipole field (B) shall be 0.577(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.02.03
6.02.03.10
The magnet ramp rate shall be 0.25A/s
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.03
6.02.03.10
The magnet is a CQ5(CRB) RHIC Horizontal corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TH:CRB.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TH:CRB.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TH:CRB.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TH:CRB.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TH:CRB.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TH:CRB.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TH:CRB.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TH:CRB.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5-TQ:QRT : HSR Q5 Quadrupole Trim Magnet Component (CQ5_QRT_TQ) (WBS 6.02.03.10)

P-HSR-MAG-Q5-TQ:QRT.01.01
6.02.03.10
The Quadrupole shall be a 'QRT' trim Quadrupole RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.02.02
6.02.03.10
The magnet gradient field (G) shall be 29.4 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.02.03
6.02.03.10
The magnet ramp rate shall be 049(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03
6.02.03.10
The magnet is a CQ5(QRT) RHIC Trim Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=31(mm), Ir=25(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.03.03
6.02.03.10
0.01<b3<1.38, -2.35<a3<0.67
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.03.04
6.02.03.10
-4.56<b4<-3.4, -0.24<a4<0.16
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.03.05
6.02.03.10
-0.2<b5<0.14, -0.13<a5<0.26
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.03.06
6.02.03.10
-10.47<b6<-9.97, -0.27<a6<-0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.03.03.10
6.02.03.10
0.09<b10<-1.55, 0.03<a10<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TQ:QRT.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TQ:QRT.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TQ:QRT.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TQ:QRT.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5-TV:CRC : HSR Q5 Vertical Corrector Magnet Component (CQ5_CRC_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q5-TV:CRC.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ5' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.02.01
6.02.03.10
The horizontal dipole field (B) shall be 0.577(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.03
6.02.03.10
The magnet is a CQ5(CRC) RHIC Vertical corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TV:CRC.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TV:CRC.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TV:CRC.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TV:CRC.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TV:CRC.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TV:CRC.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q5-TV:CRC.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-TV:CRC.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5-OCT:CRB : HSR Q5 Octupole Magnet Component (CQ5_CRB_OCT)

P-HSR-MAG-Q5-OCT:CRB.01.01
The magnet shall be a RHIC CRB Octupole Corrector in the 'Q5' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03
The magnet is a CQ5 (CRB) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRB.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q5-OCT:CRC : HSR Q5 Octupole Magnet Component (CQ5_CRC_OCT)

P-HSR-MAG-Q5-OCT:CRC.01.01
The magnet shall be a RHIC CRC Octupole Corrector in the 'Q5'' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03
The magnet is a CQ5 (CRC) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q5-OCT:CRC.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q6

HSR-MAG-Q6-Q:QRG : HSR Q6 Quadrupole Magnet Component (CQ6_QRG_Q6) (WBS 6.02.03.10)

P-HSR-MAG-Q6-Q:QRG.01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.1 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.02.03
6.02.03.10
The magnet ramp rate shall be 24.79(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03
6.02.03.10
The magnet is a CQ6(QRG) RHIC Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0Ref#2: b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43Ref#2:-2<b4<0.78, -0.67<a4<1.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54Ref#2:-1<b5<2.14, -1.66<a5<1.14
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-Q:QRG.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-Q:QRG.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-Q:QRG.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-Q:QRG.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-Q:QRG.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-Q:QRG.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-Q:QRG.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less that <1 (mA) with a 450(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-Q:QRG.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q6-QGT:CRB : HSR Q6 GammaT Quadrupole Magnet Component (CQ6_CRB_QGT) (WBS 6.02.03.10)

P-HSR-MAG-Q6-QGT:CRB.01.01
6.02.03.10
The Gamma-T-Quad shall be a 'CRB' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.02.01
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.02.02
6.02.03.10
The Gamma T quadrupole gradient field (G) shall be 2.72(T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.02.03
6.02.03.10
The magnet ramp rate shall be 4347(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.03
6.02.03.10
The magnet is a CQ6(CRB) RHIC Gamma-T Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QGT:CRB.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QGT:CRB.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q6-QS:CRC : HSR Q6 Skew Quadrupole Magnet Component (CQ6_CRC_QS) (WBS 6.02.03.10)

P-HSR-MAG-Q6-QS:CRC.01.01
6.02.03.10
The Skew-Quad shall be a 'CRC' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.02.01
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.02.02
6.02.03.10
The skew quadrupole gradient field (G) shall be 2.72(T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.03
6.02.03.10
The magnet is a CQ6(CRC) RHIC Skew Quadrupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.03.03.02
6.02.03.10
b2=0,a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-QS:CRC.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-QS:CRC.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q6-TH:CRB : HSR Q6 Horizontal Corrector Magnet Component (CQ6_CRB_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q6-TH:CRB.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.02.01
6.02.03.10
The vertical dipole field (B) shall be 0.577(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.02.03
6.02.03.10
The magnet ramp rate shall be 0.25A/s
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.03
6.02.03.10
The magnet is a CQ6(CRB) RHIC Horizontal corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TH:CRB.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TH:CRB.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TH:CRB.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TH:CRB.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TH:CRB.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TH:CRB.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TH:CRB.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TH:CRB.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q6-TQ:QRT : HSR Q6 Quadrupole Trim Magnet Component (CQ6_QRT_TQ) (WBS 6.02.03.10)

P-HSR-MAG-Q6-TQ:QRT.01.01
6.02.03.10
The Quadrupole shall be a 'QRT' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.75 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.02.02
6.02.03.10
The magnet gradient field (G) shall be 29.4 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.02.03
6.02.03.10
The magnet ramp rate shall be 0.49(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03
6.02.03.10
The magnet is a CQ6(QRT) RHIC Trim Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) are Rr=31(mm), Ir=25(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.03.03
6.02.03.10
0.01<b3<1.38, -2.35<a3<0.67
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.03.04
6.02.03.10
-4.56<b4<-3.4, -0.24<a4<0.16
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.03.05
6.02.03.10
-0.2<b5<0.14, -0.13<a5<0.26
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.03.06
6.02.03.10
-10.47<b6<-9.97, -0.27<a6<-0.04
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.03.03.10
6.02.03.10
0.09<b10<-1.55, 0.03<a10<0.03
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TQ:QRT.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TQ:QRT.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TQ:QRT.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TQ:QRT.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q6-TV:CRC : HSR Q6 Vertical Corrector Magnet Component (CQ6_CRC_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q6-TV:CRC.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ6' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.02.01
6.02.03.10
The horizontal dipole field (B) shall be 0.577(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.25(A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.03
6.02.03.10
The magnet is a CQ6(CRC) RHIC Vertical corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TV:CRC.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TV:CRC.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.06.01
6.02.03.10
The magnet shall continue be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7(K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.06.03
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TV:CRC.06.04
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TV:CRC.06.05
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TV:CRC.06.06
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TV:CRC.06.07
6.02.03.10
< Requirement not Applicable >
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.06.08
6.02.03.10
< Requirement not Applicable >
07/06/2026
In Process
FALSE

P-HSR-MAG-Q6-TV:CRC.07
6.02.03.10
The magnet shall utilize it existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less that <1 (mA) with a 100(V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits .
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q6-TV:CRC.10
6.02.03.10
Over its planned life of 30(yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1(MGy) to 20(MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q7

HSR-MAG-Q7-Q:QR7 : HSR Q7 Quadrupole Magnet Component (CQ7_QR7_Q7) (WBS 6.02.03.10)

HSR-MAG-Q7-QGT:CRB : HSR Q7 GammaT Quadrupole Magnet Component (CQ7_CRB_QGT) (WBS 6.02.03.10)

P-HSR-MAG-Q7-QGT:CRB.01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.03
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.04
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.05
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QGT:CRB.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q7-QS:CRC : HSR Q7 Skew Quadrupole Magnet Component (CQ7_CRC_QS) (WBS 6.02.03.10)

P-HSR-MAG-Q7-QS:CRC.01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.03
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.03.03.02
6.02.03.10
b2=0,a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.04
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.05
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-QS:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q7-TH:CRB : HSR Q7 Horizontal Corrector Magnet Component (CQ7_CRB_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q7-TH:CRB.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.03
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.04
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.05
6.02.03.10
The magnet is a CQ7(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TH:CRB.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q7-TV:CRC : HSR Q7 Vertical Corrector Magnet Component (CQ7_CRC_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q7-TV:CRC.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ7' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.03
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.04
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.05
6.02.03.10
The magnet is a CQ7(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q7-TV:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q7-OCT:CRB : HSR Q7 Octupole Magnet Component (CQ7_CRB_OCT)

P-HSR-MAG-Q7-OCT:CRB.01.01
The magnet shall be a RHIC CRB Octupole Corrector in the 'Q7' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03
The magnet is a CQ7 (CRB) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRB.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q7-OCT:CRC : HSR Q6 Octupole Magnet Component (CQ6_CRC_OCT)

P-HSR-MAG-Q7-OCT:CRC.01.01
The magnet shall be a RHIC CRC Octupole Corrector in the 'Q7' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03
The magnet is a CQ7 (CRC) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q7-OCT:CRC.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q8

HSR-MAG-Q8-Q:QRG : HSR Q8 Quadrupole Magnet Component (CQ8_QRG_Q8) (WBS 6.02.03.10)

P-HSR-MAG-Q8-Q:QRG.01.01
6.02.03.10
The magnet shall be a 'QRG' RHIC Quadrupole in a 'CQ8' RHIC Quadrupole Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.01.06
6.02.03.10
The existing magnet length is 1.13 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.01.09
6.02.03.10
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.02.02
6.02.03.10
The magnet gradient field (G) shall be 86.57 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.02.03
6.02.03.10
The insertion quadrupole ramp rate shall be 28.76 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03
6.02.03.10
The magnet is a CQ8 (QRG) RHIC Quadrupole Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25 (mm), Ir=10 (A)Ref#2: Rr=25 (mm), Ir=5000 (A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.02
6.02.03.10
Ref#1: b2=10000. a2=0: Ref#2: b2=10000. a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27: Ref#2: -1.98<b3<1.56, -3.51<a3<-0.15
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.04
6.02.03.10
Ref#1: -2.46<b4<-0.56, -0.47<a4<1.43: Ref#2: -2<b4<0.78, -0.67<a4<1.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.05
6.02.03.10
Ref#1: -0.35<b5<0.63, -0.42<a5<0.54: Ref#2: -1<b5<2.14, -1.66<a5<1.14
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47: Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.07
6.02.03.10
Ref#1: -0.12<b7<0.14, -0.09<a7<0.17: Ref#2: -0.08<b7<0.18, -0.08<a7<0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.08
6.02.03.10
Ref#1: -0.61<b8<-0.43, -0.1<a8<0.12: Ref#2: -0.63<b8<-0.41, -0.05<a8<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.09
6.02.03.10
Ref#1: -0.04<b9<0.06, -0.05<a9<0.05: Ref#2: -0.08<b9<0.2, -0.07<a9<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.03.03.10
6.02.03.10
Ref#1: -1.35<b10<-1.23, 0.33<a10<0.37: Ref#2: -1.52<b10<-1.36, 0.35<a10<0.43
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.06
6.02.03.10
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.06.01
6.02.03.10
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.06.02
6.02.03.10
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.07
6.02.03.10
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.07.02
6.02.03.10
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.08
6.02.03.10
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.08.01
6.02.03.10
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. All Quadrupoles when connected in their normal series circuit shall have a leakage current less than <1 (mA) with a 450 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.08.02
6.02.03.10
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.08.03
6.02.03.10
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.09
6.02.03.10
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-Q:QRG.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q8-QGT:CRB : HSR Q8 GammaT Quadrupole Magnet Component (CQ8_CRB_QGT) (WBS 6.02.03.10)

P-HSR-MAG-Q8-QGT:CRB.01.01
6.02.03.10
The GammaTQuad shall be a 'CRB' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.03
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.04
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.05
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QGT:CRB.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q8-QS:CRC : HSR Q8 Skew Quadrupole Magnet Component (CQ8_CRC_QS) (WBS 6.02.03.10)

P-HSR-MAG-Q8-QS:CRC.01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.03
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.03.03.02
6.02.03.10
b2=0,a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.04
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.05
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-QS:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q8-TH:CRB : HSR Q8 Horizontal Corrector Magnet Component (CQ8_CRB_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q8-TH:CRB.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRB' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.03
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.04
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.05
6.02.03.10
The magnet is a CQ8(CRB) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TH:CRB.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q8-TV:CRC : HSR Q8 Vertical Corrector Magnet Component (CQ8_CRC_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q8-TV:CRC.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ8' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.03
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.04
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.05
6.02.03.10
The magnet is a CQ8(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q8-TV:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q8-OCT:CRB : HSR Q8 Octupole Magnet Component (CQ8_CRB_OCT)

P-HSR-MAG-Q8-OCT:CRB.01.01
The magnet shall be a RHIC CRB Octupole Corrector in the 'Q8' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03
The magnet is a CQ8 (CRB) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRB.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q8-OCT:CRC : HSR Q8 Octupole Magnet Component (CQ8_CRC_OCT)

P-HSR-MAG-Q8-OCT:CRC.01.01
The magnet shall be a RHIC CRC Octupole Corrector in a 'CQ8' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03
The magnet is a CQ8 (CRC) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q8-OCT:CRC.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q9

HSR-MAG-Q9-Q:QRG : HSR Q9 Quadrupole Magnet Component (CQ9_QRG_Q9) (WBS 6.02.03.10)

P-HSR-MAG-Q9-Q:QRG.01.01
6.02.03.10
The Quadrupole shall be a 'QRG' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 1.13 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.02.02
6.02.03.10
The magnet gradient field (G) shall be 75.5 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03
6.02.03.10
The magnet is a CQ9(QRG) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be: Ref#1: Rr=25(mm), Ir=10(A) Ref#2: Rr=25(mm), Ir=5000(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.02
6.02.03.10
Ref#1: b2=10000,a2=0 Ref#2: b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.03
6.02.03.10
Ref#1: -2.22<b3<1, -3.59<a3<-0.27 Ref#2:-1.98<b3<1.56, -3.51<a3<-0.15
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.04
6.02.03.10
Ref#1:-2.46<b4<-0.56, -0.47<a4<1.43 Ref#2:-2<b4<0.78, -0.67<a4<1.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.05
6.02.03.10
Ref#1:-0.35<b5<0.63, -0.42<a5<0.54 Ref#2:-1<b5<2.14, -1.66<a5<1.14
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.06
6.02.03.10
Ref#1:1<b6<1.84, -4.05<a6<-3.47 Ref#2:5.08<b6<6.32, -4.15<a6<-3.53
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.07
6.02.03.10
Ref#1:-0.12<b7<0.14, -0.09<a7<0.17 Ref#2:-0.08<b7<0.18, -0.08<a7<0.2
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.08
6.02.03.10
Ref#1:-0.61<b8<-0.43, -0.1<a8<0.12 Ref#2:-0.63<b8<-0.41, -0.05<a8<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.09
6.02.03.10
Ref#1:-0.04<b9<0.06, -0.05<a9<0.05 Ref#2:-0.08<b9<0.2, -0.07<a9<0.13
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.03.03.10
6.02.03.10
Ref#1:-1.35<b10<-1.23, 0.33<a10<0.37 Ref#2:-1.52<b10<-1.36, 0.35<a10<0.43
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.04
6.02.03.10
The magnet is a CQ9(QRG) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.05
6.02.03.10
The magnet is a CQ9(QRG) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-Q:QRG.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q9-QS:CRC : HSR Q9 Skew Quadrupole Magnet Component (CQ9_CRC_QS) (WBS 6.02.03.10)

P-HSR-MAG-Q9-QS:CRC.01.01
6.02.03.10
The SkewQuad shall be a 'CRC' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,49,6(A)=0.067(T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.02.03
6.02.03.10
The magnet ramp rate shall be 0.042 T/m.s.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.03
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.03.03.02
6.02.03.10
b2=0,a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.04
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.05
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q9-TH:CRF : HSR Q9 Horizontal Corrector Magnet Component (CQ9_CRF_TH) (WBS 6.02.03.10)

P-HSR-MAG-Q9-TH:CRF.01.01
6.02.03.10
The Horizontal Kicker shall be a 'CRF' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.03
6.02.03.10
The magnet is a CQ9(CRF) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.03.03.01
6.02.03.10
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.03.03.02
6.02.03.10
b2=10000,a2=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.04
6.02.03.10
The magnet is a CQ9(CRF) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.05
6.02.03.10
The magnet is a CQ9(CRF) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TH:CRF.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q9-TV:CRC : HSR Q9 Vertical Corrector Magnet Component (CQ9_CRC_TV) (WBS 6.02.03.10)

P-HSR-MAG-Q9-TV:CRC.01.01
6.02.03.10
The Vertical Kicker shall be a 'CRC' RHIC Magnet in a 'CQ9' RHIC Magnet Assembly.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.01.06
6.02.03.10
The physical magnet length shall be less than or equal to 0.5 (m).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.01.09
6.02.03.10
The magnet pole tip radius shall be 40 (mm).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.02.01
6.02.03.10
The magnet dipole field (B) shall be B to 25mm,52(A)=0.596 (T).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.02.03
6.02.03.10
The magnet ramp rate shall be TBD.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.03
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.03.01
6.02.03.10
The magnet harmonic reference radius (Rr) and current (Ir) shall be Rr=25(mm), Ir=~50(A).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.03.03
6.02.03.10
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.03.03.01
6.02.03.10
b1=10000,a1=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.03.03.02
6.02.03.10
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.03.03.03
6.02.03.10
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.03.03.04
6.02.03.10
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.04
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Cross-talk calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.05
6.02.03.10
The magnet is a CQ9(CRC) RHIC Magnet, the Magnet-Fringe-field calculations are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06
6.02.03.10
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.01
6.02.03.10
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at TBD bar. The sub-atmospheric side of the heat exchanger will operate at 4.6 (K) and the corresponding saturated vapor pressure.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.02
6.02.03.10
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.03
6.02.03.10
The magnet shall be capable of removing a maximum total heat load of TBD W while maintaining nominal operating conditions under TBD bar and 4.6 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.04
6.02.03.10
The magnet current leads Magnet-cooling shall be capable of removing a maximum total heat load of TBD W at the cold end while maintaining nominal operating conditions under TBD bar and 4.6 (K), and vapor Magnet-cooling flow of TBD g/s from TBD K to TBD K
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.05
6.02.03.10
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.06
6.02.03.10
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be TBD bar.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.07
6.02.03.10
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.06.08
6.02.03.10
The magnet shall be designed to handle a controlled cooldown with minimum of a TBD K axial gradient.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.07
6.02.03.10
The magnet shall have an appropriate Magnet-Quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a Magnet-Quench event and meets the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.07.01
6.02.03.10
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degMagnet-Radiation in its performance.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.07.02
6.02.03.10
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no Magnet-Quenches and SHALL attain the nominal operating current with no more than 3 Magnet-Quenches.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.08
6.02.03.10
All Magnet-Electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.08.01
6.02.03.10
The magnet coils and Magnet-Quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.08.02
6.02.03.10
The magnet shall be delivered with three redundant (3x2) Magnet-Quench detection voltage taps located on each magnet lead and at the Magnet-Electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical Magnet-Quench detection shall have a redundant voltage tap.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.08.03
6.02.03.10
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 4.6 K.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.09
6.02.03.10
The magnet is expected to sustain 20 years of EIC operation under nominal conditions. During these 20 operational years, the magnet is expected to survive the following: 40 thermal cycles, 120 Magnet-Quenches and 20000 power cycles.
05/14/2026
Approved
FALSE

P-HSR-MAG-Q9-TV:CRC.10
6.02.03.10
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
05/14/2026
Approved
FALSE

HSR-MAG-Q9-OCT:CRC : HSR Q9 Octupole Magnet Component (CQ9_CRC_OCT)

P-HSR-MAG-Q9-OCT:CRC.01.01
The magnet shall be a RHIC CRC Octupole Corrector in the 'Q9' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.02.02
The magnet Octupole corrector gradient field (G) shall be 0.4325 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.02.03
The Octupole corrector ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03
The magnet is a CQ9 (CRC) RHIC Octupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03.03.01
-30<b2<30, a2~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03.03.02
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03.03.03
b4=10000. a4=0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03.03.04
-120<b5<120, a5~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.03.03.05
-100<b6<100, a6~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-OCT:CRC.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-MAG-Q9-QS:CRF : HSR Q9 Octupole Magnet Component (CQ9_CRF_QS)

P-HSR-MAG-Q9-QS:CRF.01.01
The Skew Quad shall be a RHIC CRF Skew Quadrupole Corrector in the 'Q9' RHIC magnet Assembly.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.01.06
The existing magnet length is 0.5 (m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.01.09
The existing magnet bore inner radius is 40 (mm).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.02.02
The Gamma T quadrupole gradient field (G) shall be 2.23 (T/m).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.02.03
The magnet ramp rate shall be 0.25 (A/s).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.03
The magnet is a CQ9 (CRF) RHIC Skew Quadrupole corrector Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.03.01
The magnet harmonic reference radius (Rr) and current (Ir) should be Rr=40 (mm), Ir=TBDA.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.03.03
The magnet bore field transfer function and field homogeneity values are maintained in the BNL magnet repository. Provided is the summary of harmonic multipole content as presented in the RHIC Configuration manual.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.03.03.01
-30<b1<30, a1~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.03.03.02
b2=0. a2=10000
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.03.03.03
-70<b3<70, a3~0
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.03.03.04
-100<b4<100, -70<a4<70
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.06
The magnet shall utilize the proposed EIC HSR cryogenic system for its cooling.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.06.01
The magnet shall continue to be cooled and sustain operations at nominal operating conditions with supercritical forced flow helium operating at a pressure of 4 bar and temperature in the range of 4.6 to 4.7 (K).
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.06.02
The magnet current leads shall reuse the existing RHIC current leads except for the 12x150A leads which will get swapped out for an updated design.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.07
The magnet shall utilize its existing RHIC quench protection system
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.07.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a Magnet-Quench without degradation in its performance.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.07.02
Prior to operation the quench protection system for all magnets shall be cycled to ensure it is fully functional.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.08
All Electrical connections to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements and code of regulations.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.08.01
The Magnet coils, Magnet-Quench protection circuits and Quench Protection heaters shall pass a Hi-Pot test at nominal operating conditions. The magnet in its normal configuration (operating independently or in a normal series circuit) shall have a leakage current less than <1 (mA) with a 100 (V) high-pot voltage.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.08.02
The magnet splices and buses shall utilize the existing RHIC Quench detection voltage taps.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.08.03
All SC magnet Splice resistances shall be monitored to ensure that all voltage readings are within acceptable limits.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.09
The magnet shall sustain 30 years of EIC operation under nominal conditions. During these 30 operational years, the magnet is expected to survive the following: 60 thermal cycles 180 Magnet-Quenches 30000 power cycles.
07/06/2026
Approved
FALSE

P-HSR-MAG-Q9-QS:CRF.10
Over its planned life of 30 (yrs), the magnet Shall be able to survive a total integrated absorbed radiation dose from 1 (MGy) to 20 (MGy) without damage. The upper limit is to be taken as a guide for the design process. The actual upper limit the magnet will see will need to be confirmed by the EIC radiation physics team
07/06/2026
Approved
FALSE

HSR-SCMR : HSR Superconducting Magnet Repurposing (WBS 6.02.03.10)

HSR-SCMR-TRIPLET : HSR Superconducting Magnet Repurposing Triplets (WBS 6.02.03.10.01/.02)

HSR-SCMR-TRIPLET-DUAL : (WBS 6.02.03.10.01)

P-HSR-SCMR-TRIPLET-DUAL.01
6.02.03.10.01
The reconfigured dual cryostat triplets shall be located in IR8 and IR12 utilizing the RHIC yellow Q1/Q2/Q3 cold masses.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.02
6.02.03.10.01
The reconfigured dual cryostat Triplet redesign shall conform to the apertures in table in P-HSR-TRIPLET-DUAL.02.01.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.02.01
6.02.03.10.01
Location Q1 GV size (mm) Q3 GV size (mm) IR8 7 88 125 8 88 125 IR12 11 88 125 12 88 125 | Location | Q1 GV size (mm) | Q3 GV size (mm) IR8 | 7 | 88 | 125 | 8 | 88 | 125 IR12 | 11 | 88 | 125 | 12 | 88 | 125
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.03
6.02.03.10.01
The reconfigured dual cryostat triplets mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- TBD (um).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.04
6.02.03.10.01
The reconfigured dual cryostat triplets redesign shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.05
6.02.03.10.01
The reconfigured dual cryostat triplets redesign shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.06
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned to remove the D0 magnet cryostat connection.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.07
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned to remove the DX magnet connections.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.08
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned to have gate valves at each end.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.09
6.02.03.10.01
The reconfigured dual cryostat triplets shall be redesigned such that the blue line cold mass Q1/Q2/Q3 superconducting magnet shall passively cooled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.01
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have a warm to cold tapering transition to the Q1 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.02
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have a cold to warm tapering transition after the Q3 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.03
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have RF Shielded bellows in its cold to warm beamline inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.04
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to have BPMs mounted in its beamline inside the cryostat and conform to meet the applicable HSR BPM requirements (P-HSR-INST-BPM-PU.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.10.05
6.02.03.10.01
The reconfigured dual cryostat triplets beamline shall be redesigned to be sleeved with the HSR beam screens and conform to meet the applicable HSR Beam Screen requirements (P-HSR-VAC-SCREENS.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.01
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic M-line shall be redesigned to accommodate the removal of the D0 and Dx magnet.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.02
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic H-line shall be redesigned to accommodate the removal of the D0 and Dx magnet.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.03
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic M,R,U,S,H Lines shall conform to the applicable cryogenics load tables in EIC Cryogenics Systems Functional Requirements [Document: EIC-SEG-RSI-010].
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.04
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic shall be redesigned such that the H-line from the yellow line connects to the blue Q3 M-line.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.05
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic shall be reconfigured such that the Q1 M-line from the blue line connects to the blue side H-line.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.11.06
6.02.03.10.01
The reconfigured dual cryostat triplets cryogenic shall be reconfigured such that the Q3 H-line from the blue line connects to the yellow side H-line in the Q3 pant leg.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.01
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum shielding and thermal blanketing shall be redesigned to accommodate the chnages in the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.02
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum capabilities shall conform with the applicable HSR Vacuum requirements (P-HSR-VAC.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.03
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum shall be redesigned to contain a beam screen heater assembly attached to the Q1 supply line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.12.04
6.02.03.10.01
The reconfigured dual cryostat triplets vacuum shall be redesigned to contain a beam screen heater control valve assembly attached to the Q3 utility line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.13.01
6.02.03.10.01
The reconfigured dual cryostat triplets power supply feedthroughs shall be redesigned such that the blue line Q1/Q2/Q3 superconducting magnets power supply feedthroughs are disabled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.14
6.02.03.10.01
The reconfigured dual cryostat triplets quench protection feedthroughs shall be redesigned such that the blue line Q1/Q2/Q3 superconducting magnets quench protection feedthroughs are disabled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.15.01
6.02.03.10.01
The reconfigured dual cryostat triplets controls systems feedthroughs shall be redesigned such that the blue line Q1/Q2/Q3 superconducting magnets control feedthroughs are disabled.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-DUAL.33
6.02.03.10.01
The reconfigured dual cryostat triplets redesign shall conform to the EIC Code of Records.
02/09/2026
In Process
FALSE

HSR-SCMR-TRIPLET-SINGLE : (WBS 6.02.03.10.02)

P-HSR-SCMR-TRIPLET-SINGLE.01
6.02.03.10.02
The single cryostat triplet shall be designed to be located in IR2, IR4 and IR10 utilizing a single cryostat with existing Q1/Q2/Q3 cold masses.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.02
6.02.03.10.02
The single cryostat triplet design shall conform to the apertures in table in P-HSR-TRIPLET-SINGLE.02.01.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.02.01
6.02.03.10.02
Location Q1 GV size (mm) Q3 GV size (mm) IR2 1 125 125 2 125 125 IR4 3 88 125 4 125 125 IR10 9 88 125 10 88 125 | Location | Q1 GV size (mm) | Q3 GV size (mm) IR2 | 1 | 125 | 125 | 2 | 125 | 125 IR4 | 3 | 88 | 125 | 4 | 125 | 125 IR10 | 9 | 88 | 125 | 10 | 88 | 125
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.03
6.02.03.10.02
The single cryostat triplet design mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- TBD (um).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.04
6.02.03.10.02
The Single Cryostat Triplet design shall be designed to not have a resonant frequency at or below TBD (Hz).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.05
6.02.03.10.02
The single cryostat triplet design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.06
6.02.03.10.02
The single cryostat triplet shall be designed to operate reliability with capability to withstand a lifetime radiation dose of TBD MGy.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.07
6.02.03.10.02
The single cryostat triplet shall be designed to have gate valves at each end.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.08
6.02.03.10.02
The single cryostat triplet design shall conform to the EIC Code of Records.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.01
6.02.03.10.02
The single cryostat triplet beamline in IR2, IR4 and IR10 shall be designed to have a cold to warm tapering transition to the Q1 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.02
6.02.03.10.02
The single cryostat triplet beamline in IR2, IR4 and IR10 shall be designed to have a cold to warm tapering transition after the Q3 superconducting magnet inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.03
6.02.03.10.02
The single cryostat triplet beamline shall be designed to have RF Shielded bellows in its cold to warm beamline inside the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.04
6.02.03.10.02
The single cryostat triplet beamline shall be designed to have BPMs mounted in its beamline inside the cryostat and conform to meet the applicable HSR BPM requirements (P-HSR-INST-BPM-PU.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.09.05
6.02.03.10.02
The single cryostat triplet beamline shall be designed to be sleeved with the HSR beam screens and conform to meet the applicable HSR Beam Screen requirements (P-HSR-VAC-SCREENS.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.01
6.02.03.10.02
The single cryostat triplet cryogenic M,R,U,S,H Lines shall have two(2) configurations for IR2, IR4 and IR10 to interconnect on each side of the IR.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.02
6.02.03.10.02
The single cryostat triplet cryogenic first M,R,U,S,H Lines configuration shall be redesigned to be a standard HSR ARC configuration.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.03
6.02.03.10.02
The single cryostat triplet cryogenic second M,R,U,S,H Lines configuration shall be redesigned to be mirror of the standard HSR ARC configuration.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.04
6.02.03.10.02
The single cryostat triplet cryogenic M,R,U,S,H Lines shall conform to the applicable cryogenics load tables in EIC Cryogenics Systems Functional Requirements [Document: EIC-SEG-RSI-010].
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.05
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 cryogenic system shall be designed such that the Q1 M,R,U,S,H Lines connects to existing HSR Q1 yellow pant leg.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.10.06
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 cryogenic system shall be designed such that the Q3 M,R,U,S,H Lines connects to existing HSR Q3 yellow pant leg.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.01
6.02.03.10.02
The single cryostat triplet vacuum shielding and thermal blanketing shall be redesigned to accommodate the changes in the cryostat.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.02
6.02.03.10.02
The single cryostat triplet vacuum design capabilities shall conform with applicable HSR Vacuum requirements (P-HSR-VAC.XXX).
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.03
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 vacuum system shall be designed to contain a beam screen heater assembly attached to the Q1 supply line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.11.04
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 vacuum system shall be designed to contain a beam screen heater control valve assembly attached to the Q3 utility line
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.12
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 shall be designed such that the Q1/Q2/Q3 superconducting magnets power supply has feedthroughs.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.13
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 shall be designed such that the Q1/Q2/Q3 superconducting magnets quench protection has feedthroughs.
02/09/2026
In Process
FALSE

P-HSR-SCMR-TRIPLET-SINGLE.14
6.02.03.10.02
The single cryostat triplet in IR2, IR4 and IR10 shall be designed such that the Q1/Q2/Q3 superconducting magnets control system has feedthroughs.
02/09/2026
In Process
FALSE

HSR-SCMR-SNAKE : HSR Superconducting Magnet Repurposing Siberian Snakes (WBS 6.02.03.10.03)

P-HSR-SCMR-SNAKE.01
6.02.03.10.03
The Hadron Storage Ring (HSR) shall have Six Siberian Snakes replicating the internal structure of the existing RHIC Siberian snake design:
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.01
6.02.03.10.03
The HSR shall have one upgraded Siberian snake transferred from the RHIC Yellow ring (Yi3-snk7) and placed between Q7 and Q8 at sector 3.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.02
6.02.03.10.03
The HSR shall have one upgraded Siberian snake transferred from the RHIC Blue ring (Bo3-snk7) and placed between Q7 and Q8 at sector 7.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.03
6.02.03.10.03
The HSR shall have one upgraded Siberian snake transferred over from the RHIC Blue ring (Bi9-snk7) and placed between Q7 and Q8 at sector 11.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.04
6.02.03.10.03
The HSR shall have one upgraded Siberian snake transferred over from the RHIC Yellow ring (Yo9-snk7) and placed between Q7 and Q8 at sector 5 in the Interaction Region at 6 o’clock.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.05
6.02.03.10.03
The HSR shall have one additional new Siberian snake constructed by reconfiguring 4RH helical magnet storage units from two RHIC spin rotators placed between Q7 and Q8 at sector 9.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.01.06
6.02.03.10.03
The HSR shall have one additional new Siberian snake constructed by reconfiguring 4 LH helical magnet storage units from two RHIC spin rotators placed between Q7 and Q8 at sector 1.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.02
6.02.03.10.03
Warm Heaters shall be installed in the new snakes which meet the existing requirements for snake magnets.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.03
6.02.03.10.03
The HSR Siberian snake design mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- XXX (um).
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.04
6.02.03.10.03
The HSR Siberian snake design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.05
6.02.03.10.03
(Check on Vacuum requirements to make sure aperture is captured.)
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.06
6.02.03.10.03
The HSR Siberian snake design shall conform to the EIC Code of Records.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.07
6.02.03.10.03
The HSR Siberian snake shall be designed to be cooled and sustained at its operational temperature of 4.7 K utilizing the M, R, U, S, H Lines connecting to existing HSR cryogenic interconnect.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.08
6.02.03.10.03
The HSR Siberian snake shall be designed to be cooled and sustained at its operational temperature utilizing the M,R,U,S,H Lines connecting to existing HSR cryogenic interconnect.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.09
6.02.03.10.03
The HSR Siberian snake shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the constraints identified in the following HSR magnet requirements: P-HSR-MAG-SNAKE.06.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.10
6.02.03.10.03
The HSR Siberian snake shall be designed to have two relief plates for the insulating vacuum vessel, which meets the existing snake magnet design.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.11
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a cryogenic bypass pipe for the ACBS which meets the constraints identified in the applicable HSR vacuum cryomodule requirements. (Table Appendix A-1: REF. P-HSR-VACCRYOMOD.XXX [5.14])
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.12
6.02.03.10.03
The HSR Siberian snake shall be designed to provide a mount for the cryogenic bypass pipe for continuity of the ACBS helium line in the insulating vacuum.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.13
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize the magnet assembly applicable which meets the constraints identified in the applicable HSR Siberian snake magnet requirements. (Table Appendix A-3: REF. P-HSR-MAGSNAKE.XXX [5.13])
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.14
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize an copper coated and amorphous carbon coated (Cu/aC) beam pipe which meets the constraints identified in the applicable HSR vacuum requirements. (Table Appendix A-1: REF. P-HSR-VAC.XXX, P-HSR-ARC-VAC.XXX and P-HSR-VACHELICAL.XXX [5.15])
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.15
6.02.03.10.03
The HSR Siberian snake vacuum beampipe shall be designed to allow the addition of a beam screen profile transition piece inside the tunnel for interfacing with the ACBS system.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.16
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a Beam Position Monitor (BPM) pickup which meets the constraints identified in the applicable HSR BPM requirements. (Table Appendix A-2: REF. P-HSR-INST-BPM-PU.XXX [5.16])
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.17
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a Cu/aC coated beam position monitor pickup.
02/09/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.18
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize the existing feedthrough for the Beam Position Monitor (BPM) cryogenic cables which meets the constraints identified in the applicable HSR BPM cryogenic cable requirements. (Table Appendix A-2: REF. P-HSR-INST-BPM-CRYO_CABLES.XXX [5.17])
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.19
6.02.03.10.03
The HSR Siberian snake feedthrough shall be designed to utilize a SiO2 beam position monitor cables.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.20
6.02.03.10.03
The HSR Siberian snake is to utilize a thermal intercept for managing the heat from the SiO2 cables connection to the warm feedthrough.
05/14/2026
Reviewed
FALSE

P-HSR-SCMR-SNAKE.21
6.02.03.10.03
The HSR Siberian snake shall be designed to utilize a feedthrough turret for the power supply cables which meets the constraints identified in applicable the HSR Siberian snake power supply requirements. (Table Appendix A-3: REF. PHSR-MAG-SNAKE.XXX [5.13])
05/14/2026
Reviewed
FALSE

HSR-SCMR-SPINROTATOR : HSR Superconducting Magnet Repurposing Spin Rotators (WBS 6.02.03.10.04)

P-HSR-SCMR-SPINROTATOR.01
6.02.03.10.04
The Hadron Storage Ring (HSR) shall have Two(2) spin rotators replicate the internal structure of the existing RHIC spin rotator design:
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.01.01
6.02.03.10.04
TBD
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.01.02
6.02.03.10.04
TBD
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.02
6.02.03.10.04
Warm Heaters shall be installed in the new spin rotator which meet the existing requirements for spin rotator magnets.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.03
6.02.03.10.04
The HSR spin rotator design mechanical center horizontal and vertical position alignment tolerances with respect to its fiducials shall be known to a certainty within +/- XXX (um).
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.04
6.02.03.10.04
The HSR spin rotator design shall be less than or equal to the allocated impedance and is within the accepted overall HSR impedance budget approved by physics.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.05
6.02.03.10.04
(Check on Vacuum requirements to make sure aperture is captured.)
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.06
6.02.03.10.04
The HSR spin rotator shall be designed to accommodate a maximum bake-out temperature of 250 (C) except where the high temperature will damage sensitive components.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.07
6.02.03.10.04
The HSR spin rotator design shall conform to the EIC Code of Records.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.08
6.02.03.10.04
The HSR spin rotator shall be designed to be cooled and sustained at its operational temperature utilizing the M,R,U,S,H Lines connecting to existing HSR cryogenic interconnect.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.09
6.02.03.10.04
The HSR spin rotator shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the constraints identified in the following HSR magnet requirements: P-HSR-MAG-SPINROTATOR.06.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.10
6.02.03.10.04
The HSR spin rotator shall be designed to have two relief plates for the insulating vacuum vessel, which meets the existing snake magnet design.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.11
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a cryogenic bypass pipe for the ACBS which meets the constraints identified in the following HSR vacuum cryomodule requirements: P-HSR-VAC-CRYOMOD.02, P-HSR-VAC-CRYOMOD.03, P-HSR-VAC-CRYOMOD.07, P-HSR-VAC-CRYOMOD.08 and P-HSR-VAC-CRYOMOD.09.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.12
6.02.03.10.04
The HSR spin rotator shall be designed to provide an mount for the cryogenic bypass pipe for the ACBS in the insulating vacuum.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.13
6.02.03.10.04
The HSR spin rotator shall be designed to utilize the magnet assembly applicable which meets the constraints identified in the HSR magnet requirements. (REF. P-HSR-MAG-SPINROTATOR.01 to P-HSR-MAG-SPINROTATOR.10)
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.14
6.02.03.10.04
The HSR spin rotator shall be designed to utilize an copper coated and amorphous carbon coated (Cu/aC) beam pipe which meets the constraints identified in the following HSR vacuum requirements: P-HSR-VAC.01, P-HSR-VAC.02, P-HSR-ARC-VAC.01, P-HSR-ARC-VAC.02 and P-HSR-ARC-VAC.03, P-HSR-VAC-SNAKE.XX-XX
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.15
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a tapered beampipe transition at its interconnects.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.16
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a Beam Position Monitor (BPM) pickup which meets the constraints identified in the following HSR BPM requirements P-HSR-INST-BPM-PU.01, P-HSR-INST-BPM-PU.02.03, P-HSR-INST-BPM-PU.03.03, P-HSR-INST-BPM-PU.04, P-HSR-INST-BPM-PU.05, P-HSR-INST-BPM-PU.06, P-HSR-INST-BPM-PU.07.02, P-HSR-INST-BPM-PU.04, and P-HSR-INST-BPM-PU.08 to P-HSR-INST-BPM-PU.13.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.17
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a Cu/aC coated beam position monitor pickup.
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.18
6.02.03.10.04
The HSR spin rotator shall be designed to utilize the existing feedthrough turret for the Beam Position Monitor (BPM) cryogenic cables which meets the constraints identified in the HSR BPM cryogenic cable requirements. (REF. P-HSR-INST-BPM-CRYO_CABLES.01 to P-HSR-INST-BPM-CRYO_CABLES.05)
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.19
6.02.03.10.04
The HSR spin rotator feedthrough turret shall be designed to utilize a SiO2 beam position monitor cables
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.20
6.02.03.10.04
The HSR spin rotator feedthrough turret shall be designed to utilize a heatshield and heat strap for the beam position monitor cables
02/09/2026
In Process
FALSE

P-HSR-SCMR-SPINROTATOR.21
6.02.03.10.04
The HSR spin rotator shall be designed to utilize a feedthrough turret for the power supply cables which meets the constraints identified in the HSR power supply requirements. (REF. P-HSR-PS-SPINROTATOR.01 to P-HSR-PS-SPINROTATOR.20)
02/09/2026
In Process
FALSE

HSR-CONT : HSR Controls System (WBS 6.02.04.02)

HSR-CONT-FEEDBACK : HSR Controls System Feedback (WBS 6.02.04.02)

HSR-CONT-SPIN : HSR Controls System Spin Pattern (WBS 6.02.04.02)

HSR-COLL : HSR Momentum Collimator System (WBS 6.04.04.03.02.01)

HSR-COLL-1ST_SECDRY : HSR Momentum First Set of Secondary Collimators (WBS 6.04.04.03.02.01)

HSR-COLL-2ND_SECDRY : HSR Momentum Second Set of Secondary Collimators (WBS 6.04.04.03.02.01)

HSR-COLL-ABS : HSR Momentum Injection Absorbers (WBS 6.04.04.03.02.01)

HSR-COLL-MOM : HSR Momentum Collimator (WBS 6.04.04.03.02.01)

HSR-COLL-PRIM : HSR Momentum Primary Collimators (WBS 6.04.04.03.02.01)

HSR-MPS : HSR Machine Protection System (WBS 6.04.04.03.02.02)

HSR-MPS-CONTROLS : Hadron Storage Ring Machine Protection Control System (WBS 6.02.04.02)

HSR-MPS-GENERAL : Hadron Storage Ring General Machine Protection (WBS 6.04.04.03.02)

HSR-MPS-COLL : Hadron Storage Ring Machine Protection Collimation System (WBS 6.04.04.03.02.01)

HSR-MPS-ABORT : Hadron Storage Ring Machine Protection Abort System (WBS 6.04.04.03.02.02)

HSR-MPS-ABORT_BUMP : HSR Machine Protection System Bump (WBS 6.04.04.03.02.02)

HSR-MPS-ABORT_KICK : HSR Machine Protection System Kicker (WBS 6.04.04.03.02.02)

HSR-MPS-DUMP_BLK : HSR Machine Protection System Dump Block (WBS 6.04.04.03.02.02)

HSR-MPS-RADSHIELDING : Hadron Storage Ring Machine Protection Radiation Sheilding (WBS 6.04.04.03.02.03)

HSR-MPS-COLLIMATIONL

F-HSR-MPS-COLLIMATIONL.01
6.04.04.03.02.01
A set of collimation systems (horizontal, vertical and momentum) shall be included in the HSR to control detector background and provide protection to the HSR magnets.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.02
6.04.04.03.02.01
The HSR collimation system shall be flexible enough to operate with the full range of HSR species at all energy ranges defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.03
6.04.04.03.02.01
The HSR shall have a collimation system capable of ensuring a sufficiently low background at the detector.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.04
6.04.04.03.02.01
The HSR shall have a collimation system capable of protecting all machine elements in case of failure.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.05
6.04.04.03.02.01
All HSR collimator stations shall be double-sided.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.06
6.04.04.03.02.01
The HSR Collimators shall be placed at accelerator locations suitable for background reduction in all operating energy ranges.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.07
6.04.04.03.02.01
The HSR Collimator jaws shall be independently and remotely movable over a range of 60 (mm).
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.08
6.04.04.03.02.01
The HSR Collimator jaw material shall be chosen such that the collimator jaw can absorb 275 GeV protons and 110 GeV Au ions without sustaining permanent damage.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.09
6.04.04.03.02.01
All HSR collimator stations shall be equipped with appropriate beam loss monitors to protect the collimator jaws from excessive beam losses by aborting the beam via the Machine Protection System (MPS).
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.10
6.04.04.03.02.01
The HSR collimator jaws shall be wide enough to still be effective in the presence of beam orbit errors of 10 (mm).
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.11
6.04.04.03.02.01
The HSR collimation stations shall be designed such as to minimize their beam impedance.
02/09/2026
Approved
FALSE

F-HSR-MPS-COLLIMATIONL.12
6.04.04.03.02.01
The HSR collimation stations shall be designed for operation in a vacuum system with pressure in 5x10-10 (Torr) or less.
02/09/2026
Approved
FALSE

HSR-RF : HSR RF System (WBS 6.08)

F-HSR-RF.01
6.02.03
The HSR Ring Normal Conducting RF system shall include an, h=315 system capable of capture and acceleration of all beams defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.02
6.02.03
The HSR Ring Normal Conducting RF system shall include an h=630 system to perform the 1:2 bunch splitting required to produce store bunch patterns defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.03
6.02.03
The HSR Ring Normal Conducting RF system shall include an h=1260 system to perform the 2:4 bunch splitting required to produce store bunch patterns defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.04
6.02.03
The HSR Ring Normal Conducting RF system shall include an h=2520 system to perform initial bunch length compression to achieve the required store bunch lengths defined in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.05
6.02.03
The HSR Ring Super Conducting RF system final bunch length compression to achieve MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.06
6.02.03
Normal conducting HSR Ring RF systems shall be located in the IR 4 straight section
02/09/2026
Approved
FALSE

F-HSR-RF.07
6.02.03
Superconducting HSR Ring RF systems shall be located in the IR 10 straight section.
02/09/2026
Approved
FALSE

F-HSR-RF.08
6.02.03
The Longitudinal Impedance Budget sum of all the longitudinal narrowband impedances from all the HSR Ring RF and Crab RF systems shall not exceed a level which compromises the machine parameters given in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.09
6.02.03
The transverse Impedance Budget sum of all the transverse narrowband impedances of all HSR Ring RF and Crab RF systems shall not exceed a level which compromises the machine parameters given in the MPT. Refer to [EIC-SEG-RSI-005].
02/09/2026
Approved
FALSE

F-HSR-RF.10
6.02.03
The HSR Ring RF system shall provide controls and diagnostics for all cavities and system functionality.
02/09/2026
Approved
FALSE

HSR-RF-HPRF : HSR RF Amplifier System (WBS 6.02.03.08)

HSR-RF-HPRF-ACAV:197 : HSR RF Amplifier NCRF 197 MHz Cavity (WBS 6.02.03.08)

HSR-RF-HPRF-ACAV:24 : HSR RF Amplifier NCRF 24.6 MHz Cavity (WBS 6.02.03.08)

HSR-RF-HPRF-ACAV:49 : HSR RF Amplifier NCRF 49.2 MHz Cavity (WBS 6.02.03.08)

HSR-RF-HPRF-ACAV:591 : HSR RF Amplifier SRF 591 MHz Cavity (WBS 6.02.03.08)

HSR-RF-HPRF-ACAV:98 : HSR RF Amplifier NCRF 98.4 MHz Cavity (WBS 6.02.03.08)

HSR-RF-NCRF

HSR-RF-NCRF-ACAV:197 : HSR RF Systems NCRF 197 MHz Cavity

P-HSR-RF-NCRF-ACAV:197.01
6.08.05.07
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.02.01
6.08.05.07
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.02.02
6.08.05.07
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.01
6.08.05.07
The minimum NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.02
6.08.05.07
The minimum NCRF Cavity System Slow Tuner full range tuning cycles shall be shall be 120,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.03
6.08.05.07
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.04
6.08.05.07
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.05
6.08.05.07
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.06
6.08.05.07
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.07
6.08.05.07
The NCRF Cavity System shall maximize the number of instrumentats that can be maintained and replaced in-situ.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.03.08
6.08.05.07
The NCRF Cavity System components shall be ergonomically accessible.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.04.01
6.08.05.07
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.04.02
6.08.05.07
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.04.03
6.08.05.07
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.04.04
6.08.05.07
The NCRF Cavity System minimum cavity aperture radius shall be 75 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.04.05
6.08.05.07
The NCRF Cavity System maximum broadband RF power emitted from the cavity via the beampipe shall be 1 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.01
6.08.05.07
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 43,000.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.02
6.08.05.07
The sum of all NCRF Cavity System minimum manufactured gradients shall be 6 MV.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.03
6.08.05.07
The NCRF Cavity System field probe Qext range shall be (1.7 ± 0.4)e8.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.04
6.08.05.07
The NCRF Cavity System nominal frequency shall be 197.051 MHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.05
6.08.05.07
The NCRF Cavity System FPC external quality factor shall be (4.8 ± 0.2)e4.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.06
6.08.05.07
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 60 kW Continuous Wave.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.07
6.08.05.07
The NCRF Cavity System loop HOM Damper maximum total broadband power on each shall be 5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.08
6.08.05.07
The NCRF Cavity System e-probe HOM Damper maximum total broadband power on each shall be 0.1 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.05.09
6.08.05.07
The NCRF Cavity System loop HOM Damper maximum fundamental power leakage under nominal frequency and voltage shall be 200 W.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.06.01
6.08.05.07
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:197.06.02
6.08.05.07
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:197.07.01
6.08.05.07
The NCRF Cavity System Slow Tuner tuning range shall be -120 to +120 KHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.07.02
6.08.05.07
The minimum NCRF Cavity System slow tuner resolution shall be ± 10 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.07.03
6.08.05.07
The minimum NCRF Cavity System slow tuner tuning rate shall be 1,600 Hz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.07.04
6.08.05.07
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 100 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.08.01
6.08.05.07
The NCRF Cavity System maximum Qext of the Fundamental Mode Damper shall be 500 when the FMD is fully inserted.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.08.02
6.08.05.07
The NCRF Cavity System Fundamental Mode Damper shall handle a minimum power of 20 W.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.08.03
6.08.05.07
The NCRF Cavity System Fundamental Mode Damper maximum insertion time, from the externally tangential to cavity inner surface position to the fully inserted position, shall be 1 second.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.08.04
6.08.05.07
The NCRF Cavity System Fundamental Mode Damper maximum retraction time, from the fully inserted position to the externally tangential to cavity inner surface position, shall be 0. 7 seconds
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.01
6.08.05.07
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.02
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.03
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.04
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.05
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.06
6.08.05.07
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.07
6.08.05.07
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.08
6.08.05.07
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.09.09
6.08.05.07
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.01
6.08.05.07
The NCRF Cavity System full assembly maximum length shall be 0.9 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.02
6.08.05.07
The NCRF Cavity System full assembly maximum width shall be 1.9 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.03
6.08.05.07
The NCRF Cavity System full assembly maximum height (including tetrode amplifier) shall be 3.0 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.04
6.08.05.07
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270 ± 15 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.05
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.06
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.07
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.08
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.09
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.10.10
6.08.05.07
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.11.01
6.08.05.07
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.11.02
6.08.05.07
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:197.11.03
6.08.05.07
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
04/23/2026
Approved
FALSE

HSR-RF-NCRF-ACAV:24 : HSR RF System NCRF 24.6 MHz Cavity

P-HSR-RF-NCRF-ACAV:24.01
6.08.05.04
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.02.01
6.08.05.04
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.02.02
6.08.05.04
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.01
6.08.05.04
The minimum lifetime NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.02
6.08.05.04
The minimum lifetime NCRF Cavity System Slow Tuner full range tuning cycles shall be 120,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.03
6.08.05.04
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.04
6.08.05.04
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.05
6.08.05.04
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.06
6.08.05.04
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.07
6.08.05.04
The NCRF Cavity System shall maximize the number of instruments that can be maintained and replaced in-situ.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.03.08
6.08.05.04
The NCRF Cavity System components shall be ergonomically accessible.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.04.01
6.08.05.04
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.04.02
6.08.05.04
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.04.03
6.08.05.04
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.04.04
6.08.05.04
The NCRF Cavity System minimum cavity aperture radius shall be 75 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.04.05
6.08.05.04
The NCRF Cavity System maximum broadband RF power emitted from the cavity via both beampipe ports shall be 1 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.01
6.08.05.04
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 12,500.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.02
6.08.05.04
The sum of all NCRF Cavity System minimum accelerating voltages shall be 0.6 MV.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.03
6.08.05.04
The NCRF Cavity System field probe external quality factor (Qext) range shall be (2.7 ± 0.5)e7.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.04
6.08.05.04
The NCRF Cavity System nominal frequency shall be 24.631 MHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.05
6.08.05.04
The NCRF Cavity System FPC external quality factor shall be (7.1 ± 0.3)e3.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.06
6.08.05.04
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 60 kW continuous wave.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.07
6.08.05.04
The maximum total broadbad power on each NCRF Cavity System loop HOM Damper shall be 5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.08
6.08.05.04
The maximum total broadband power on each NCRF Cavity System e-probe HOM Damper shall be 0.1 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.05.09
6.08.05.04
The maximum fundamental power leakage under nominal frequency and voltage of the NCRF Cavity System loop HOM Damper shall be 200 W.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.06.01
6.08.05.04
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:24.06.02
6.08.05.04
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:24.07.01
6.08.05.04
The NCRF Cavity System Slow Tuner tuning range shall be -160 to +40 KHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.07.02
6.08.05.04
The minimum NCRF Cavity System slow tuner resolution shall be ± 500 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.07.03
6.08.05.04
The minimum NCRF Cavity System slow tuner tuning rate shall be 1,600 Hz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.07.04
6.08.05.04
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 2,500 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.07.05
6.08.05.04
The minimum NCRF Cavity System Fast Tuner tuning range shall be 20 kHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.07.06
6.08.05.04
The minimum NCRF Cavity System Fast Tuner resolution shall be ± 10 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.07.07
6.08.05.04
The minimum NCRF Cavity System Fast tuning rate shall be 10 MHz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.07.08
6.08.05.04
The maximum NCRF Cavity System Fast Tuner hysteresis shall be ± 100 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.01
6.08.05.04
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.02
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.03
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.04
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.05
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.06
6.08.05.04
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.07
6.08.05.04
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.08
6.08.05.04
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.08.09
6.08.05.04
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.01
6.08.05.04
The NCRF Cavity System full assembly maximum length shall be 3.0 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.02
6.08.05.04
The NCRF Cavity System full assembly maximum width shall be 1.8 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.03
6.08.05.04
The NCRF Cavity System full assembly maximum height (including tetrode amplifier) shall be 2.3 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.04
6.08.05.04
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270.0 ± 15 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.05
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.06
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.07
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.08
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.09
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.09.10
6.08.05.04
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.10.01
6.08.05.04
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.10.02
6.08.05.04
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:24.10.03
6.08.05.04
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
04/23/2026
Approved
FALSE

HSR-RF-NCRF-ACAV:49 : HSR RF Systems NCRF 49.2 MHz Cavity

P-HSR-RF-NCRF-ACAV:49.01
6.08.05.05
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.02.01
6.08.05.05
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.02.02
6.08.05.05
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.01
6.08.05.05
The minimum NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.02
6.08.05.05
The minimum NCRF Cavity System Slow Tuner full range tuning cycles shall be shall be 120,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.03
6.08.05.05
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.04
6.08.05.05
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.05
6.08.05.05
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.06
6.08.05.05
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.07
6.08.05.05
The NCRF Cavity System shall maximize the number of instrumentats that can be maintained and replaced in-situ.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.03.08
6.08.05.05
The NCRF Cavity System components shall be ergonomically accessible.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.04.01
6.08.05.05
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.04.02
6.08.05.05
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.04.03
6.08.05.05
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.04.04
6.08.05.05
The NCRF Cavity System minimum cavity aperture radius shall be 75 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.04.05
6.08.05.05
The NCRF Cavity System maximum broadband RF power emitted from the cavity via the beampipe shall be 1 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.01
6.08.05.05
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 10,000.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.02
6.08.05.05
The sum of all NCRF Cavity System minimum manufactured gradients shall be 0.5 MV.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.03
6.08.05.05
The NCRF Cavity System field probe Qext range shall be (5.3 ± 1.0)e7.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.04
6.08.05.05
The NCRF Cavity System nominal frequency shall be 49.263 MHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.05
6.08.05.05
The NCRF Cavity System FPC external quality factor shall be (4.6 ± 0.2)e3.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.06
6.08.05.05
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 120 kW Continuous Wave.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.07
6.08.05.05
The NCRF Cavity System loop HOM Damper maximum total broadband power on each shall be 5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.08
6.08.05.05
The NCRF Cavity System e-probe HOM Damper maximum total broadband power on each shall be 0.5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.05.09
6.08.05.05
The NCRF Cavity System loop HOM Damper maximum fundamental power leakage under nominal frequency and voltage shall be 200 W.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.06.01
6.08.05.05
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:49.06.02
6.08.05.05
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:49.07.01
6.08.05.05
The NCRF Cavity System Slow Tuner tuning range shall be -280 to +40 KHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.07.02
6.08.05.05
The minimum NCRF Cavity System slow tuner resolution shall be ± 500 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.07.03
6.08.05.05
The minimum NCRF Cavity System slow tuner tuning rate shall be 1600 Hz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.07.04
6.08.05.05
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 2500 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.08.01
6.08.05.05
The NCRF Cavity System maximum Qext of the Fundamental Mode Damper shall be 250 when the FMD is fully inserted.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.08.02
6.08.05.05
The NCRF Cavity System Fundamental Mode Damper shall handle a minimum power of 5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.08.03
6.08.05.05
The NCRF Cavity System Fundamental Mode Damper maximum insertion time, from the externally tangential to cavity inner surface position to the fully inserted position, shall be 1 second.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.08.04
6.08.05.05
he NCRF Cavity System Fundamental Mode Damper maximum retraction time, from the fully inserted position to the externally tangential to cavity inner surface position, shall be 0.2 seconds
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.01
6.08.05.05
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.02
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.03
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.04
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.05
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.06
6.08.05.05
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.07
6.08.05.05
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.08
6.08.05.05
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.09.09
6.08.05.05
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.01
6.08.05.05
The NCRF Cavity System full assembly maximum length shall be 1.5 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.02
6.08.05.05
The NCRF Cavity System full assembly maximum width shall be 1.9 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.03
6.08.05.05
The NCRF Cavity System full assembly maximum height shall be 1.9 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.04
6.08.05.05
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270 ± 15 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.05
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.06
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.07
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.08
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.09
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.10.10
6.08.05.05
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.11.01
6.08.05.05
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.11.02
6.08.05.05
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:49.11.03
6.08.05.05
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
04/23/2026
Approved
FALSE

HSR-RF-NCRF-ACAV:98 : HSR RF Systems NCRF 98.4 MHz Cavity

P-HSR-RF-NCRF-ACAV:98.01
6.08.05.06
The NCRF Cavity System shall be outfitted with flow control, thermometry, vacuum pressure, and RF instrumentation as to monitor and control all sub-systems during operation and testing.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.02.01
6.08.05.06
The NCRF Cavity System shall be designed to operate at a maximum steady state temperature of 70°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.02.02
6.08.05.06
The NCRF Cavity System cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.01
6.08.05.06
The minimum NCRF Cavity System Slow Tuner 1% range tuning cycles shall be 1,200,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.02
6.08.05.06
The minimum NCRF Cavity System Slow Tuner full range tuning cycles shall be shall be 120,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.03
6.08.05.06
The NCRF Cavity System maximum manufactured field emission at operational voltage shall be 10 Gy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.04
6.08.05.06
The NCRF Cavity System components that are not replaceable in-situ shall be designed with a minimum lifetime radiation tolerance of 1,000 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.05
6.08.05.06
The NCRF Cavity System components that are replaceable in-situ shall have a minimum lifetime radiation tolerance of 1 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.06
6.08.05.06
The NCRF Cavity System critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.07
6.08.05.06
The NCRF Cavity System shall maximize the number of instrumentats that can be maintained and replaced in-situ.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.03.08
6.08.05.06
The NCRF Cavity System components shall be ergonomically accessible.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.04.01
6.08.05.06
The sum of all NCRF Cavity System RF longitudinal impedance (accelerator definition) shall be no greater than 180 kΩ Ghz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.04.02
6.08.05.06
The sum of all NCRF Cavity System RF horizontal impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.04.03
6.08.05.06
The sum of all NCRF Cavity System RF vertical impedance (accelerator definition) shall be no greater than 5 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.04.04
6.08.05.06
The NCRF Cavity System minimum cavity aperture radius shall be 37.5 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.04.05
6.08.05.06
The NCRF Cavity System maximum broadband RF power emitted from the cavity via the beampipe shall be 1 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.01
6.08.05.06
The NCRF Cavity System minimum manufactured quality factor (Qo) shall be 7,650.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.02
6.08.05.06
The sum of all NCRF Cavity System minimum manufactured gradients shall be 0.6 MV.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.03
6.08.05.06
The NCRF Cavity System field probe Qext range shall be (5.4 ± 1.0)e7.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.04
6.08.05.06
The NCRF Cavity System nominal frequency shall be 98.525 MHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.05
6.08.05.06
The NCRF Cavity System FPC external quality factor shall be (3.9 ± 0.2)e3.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.06
6.08.05.06
The NCRF Cavity System FPC window design shall be rated to a minimum input power of 120 kW Continuous Wave.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.07
6.08.05.06
The NCRF Cavity System loop HOM Damper maximum total broadband power on each shall be 5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.08
6.08.05.06
The NCRF Cavity System e-probe HOM Damper maximum total broadband power on each shall be 0.5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.05.09
6.08.05.06
The NCRF Cavity System loop HOM Damper maximum fundamental power leakage under nominal frequency and voltage shall be 200 W.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.06.01
6.08.05.06
The NCRF Cavity System maximum beamline vacuum shall be 5.0e-10 mbar.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:98.06.02
6.08.05.06
The NCRF Cavity System maximum beamline vacuum leak rate shall be 5.0e-10 mbar L/s.
04/23/2026
In Process
FALSE

P-HSR-RF-NCRF-ACAV:98.07.01
6.08.05.06
The NCRF Cavity System Slow Tuner tuning range shall be -120 to +120 KHz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.07.02
6.08.05.06
The minimum NCRF Cavity System slow tuner resolution shall be ± 500 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.07.03
6.08.05.06
The minimum NCRF Cavity System slow tuner tuning rate shall be 1600 Hz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.07.04
6.08.05.06
The maximum NCRF Cavity System Slow Tuner hysteresis shall be ± 2500 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.08.01
6.08.05.06
The NCRF Cavity System maximum Qext of the Fundamental Mode Damper shall be 150 when the FMD is fully inserted.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.08.02
6.08.05.06
The NCRF Cavity System Fundamental Mode Damper shall handle a minimum power of 5 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.08.03
6.08.05.06
he NCRF Cavity System Fundamental Mode Damper maximum insertion time, from the externally tangential to cavity inner surface position to the fully inserted position, shall be 1 second.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.08.04
6.08.05.06
he NCRF Cavity System Fundamental Mode Damper maximum retraction time, from the fully inserted position to the externally tangential to cavity inner surface position, shall be 0.2 seconds.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.01
6.08.05.06
All NCRF Cavity System surfaces accessible to workers shall be less than 60°C.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.02
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME B31.3.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.03
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASME BPVC.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.04
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by ASTM C1055.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.05
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.06
6.08.05.06
The NCRF Cavity System shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), as defined by NFPA 70E.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.07
6.08.05.06
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by API 520 & API 521.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.08
6.08.05.06
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by AWS.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.09.09
6.08.05.06
The NCRF Cavity System shall be designed and manufactured as directed by the BNL SBMS to meet all applicable safety standards as defined by the DOE Vacuum Vessel Consensus Standards.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.01
6.08.05.06
The NCRF Cavity System full assembly maximum length shall be 0.9 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.02
6.08.05.06
The NCRF Cavity System full assembly maximum width shall be 1.5 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.03
6.08.05.06
The NCRF Cavity System full assembly maximum height shall be 1.3 m.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.04
6.08.05.06
The distance from the NCRF Cavity System beamline to the tunnel floor shall be 1270 ± 15 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.05
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in X shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.06
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Y shall be ± 0.7 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.07
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance in Z shall be ± 10 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.08
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.09
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.10.10
6.08.05.06
The NCRF Cavity System Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.1 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.11.01
6.08.05.06
The NCRF Cavity System shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.11.02
6.08.05.06
The NCRF Cavity System shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-NCRF-ACAV:98.11.03
6.08.05.06
The NCRF Cavity System shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
04/23/2026
Approved
FALSE

HSR-RF-SRF

HSR-RF-SRF-CCAV:197 : HSR Main RF Capture & Accel Mode (WBS 6.08.05.04)

P-HSR-RF-SRF-CCAV:197.01.01
6.04.03.08
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.01
6.04.03.08
The cavity helium bath maximum designed operational temperature shall be 2 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.02
6.04.03.08
The cavity helium bath maximum designed operational pressure shall be 30 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.03
6.04.03.08
The cavity helium bath designed operation pressure stability shall be ± 0.1 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.05
6.04.03.08
The maximum design helium supply operational temperature shall be 5.5 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.06
6.04.03.08
The range of the design helium supply operational pressure shall be 3 to 3.5 bar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.07
6.04.03.08
The range of the combined helium return temperature shall be 64 to 66 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.08
6.04.03.08
The range of the combined helium return pressure shall be 2.4 to 2.6 bar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.09
6.04.03.08
The maximum sub-atmospheric helium return temperature shall be 4.5 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.10
6.04.03.08
The maximum Subatmospheric helium return pressure shall be 30 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.11
6.04.03.08
The minimum cooldown rate of the SRF cavity between 300K and 4.5K shall be 20 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.12
6.04.03.08
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.13
6.04.03.08
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 4 days.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.14
6.04.03.08
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.02.15
6.04.03.08
The SRF Cryomodule shall achieve a full warm-up cycle from 4K to 295K in a maximum of 2 days.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.03.01
6.04.03.08
The SRF Cryomodule cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.01
6.04.03.08
The SRF Cryomodule shall operate through a minimum of 100 thermal cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.02
6.04.03.08
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.03
6.04.03.08
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.04
6.04.03.08
The manufactured SRF Cryomodule Cavity shall produce no field emission at 8.5 MV.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.05
6.04.03.08
The SRF Cryomodule components that are not replaceable in-situ shall be designed with a radiation tolerance greater than 1 MGy.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.06
6.04.03.08
The SRF Cryomodule components that are replaceable in-situ shall have a radiation tolerance greater than 1 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.07
6.04.03.08
The active SRF cavity tuning mechanism components (bearings/motor) shall be replaceable and maintainable in-situ.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.08
6.04.03.08
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.04.09
6.04.03.08
The SRF Cryomodule instrument should have maximized instruments that can be maintained and replaced in-situ.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.01
6.04.03.08
The SRF maximum (per cavity) RF longitudinal impedance shall be 0.26 MΩ GHz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.02
6.04.03.08
The SRF maximum (per cavity) RF horizontal impedance shall be 0.132 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.03
6.04.03.08
The SRF maximum (per cavity) RF vertical impedance shall be 0.66 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.04
6.04.03.08
The minimum cavity aperture radius shall be 50 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.05
6.04.03.08
The maximum broadband RF power emitted from the cryomodule shall be 100 W for all EIC design energies and currents.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.06
6.04.03.08
The SRF Cryomodule shall be designed to operate with a beam current up to 1.0 A.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.07
6.04.03.08
The Maximum Quadrupole multipole content per side at 33.8 MV shall be 8 mT.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.08
6.04.03.08
The Maximum Sextupole multipole content per side at 33.8 MV shall be 160 mT/m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.09
6.04.03.08
The Maximum Octupole multipole content per side at 33.8 MV shall be 7.6 T/m^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.10
6.04.03.08
The Maximum Decapole multipole content per side at 33.8 MV shall be 410 T/m^3.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.05.12
6.04.03.08
The separation between the two cavities poles at the apex of the curve shall be 105.3 +/- 0.5 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.01
6.04.03.08
The SRF cavity minimum manufactured quality factor (Qo) shall be 6e9.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.02
6.04.03.08
The SRF cavity minimum manufactured voltage shall be 8.5 MV.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.03
6.04.03.08
The SRF cavity fundamental power coupler Qext shall be (1.75 +/- 0.1)e6.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.04
6.04.03.08
The SRF cavity field probe Qext range shall be (2.70 to 3.24)e10.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.05
6.04.03.08
The SRF cavity nominal cold frequency shall be 197.0508 MHz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.06
6.04.03.08
The SRF maximum Lorentz force detuning shall be 5 Hz/(Mv/m)^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.07
6.04.03.08
The SRF cavity maximum Niobium temperature shall be 4.5 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.08
6.04.03.08
The SRF Pressure sensitivity maximum shall be 10 Hz/mBar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.06.09
6.04.03.08
The SRF Cryomodule shall be designed to handle a minimum forward power of 60 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.07.01
6.04.03.08
The warm beamline maximum vacuum shall be 1.0e-7 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.07.02
6.04.03.08
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.07.03
6.04.03.08
The beamline vacuum maximum leak rate shall be 1.0e-11 mbar L/s.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.07.04
6.04.03.08
The warm insulating maximum vacuum shall be 1.0e-5 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.07.05
6.04.03.08
The cold insulating maximum vacuum shall be 5.0e-7 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.07.06
6.04.03.08
The insulating vacuum maximum leak rate shall be 1.0e-9 mbar L/s.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.08.01
6.04.03.08
The minimum SRF Cavity Slow Tuner tuning range shall be -170 to +101 kHz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.08.02
6.04.03.08
The minimum SRF Cavity Slow Tuner tuning rate shall be 800 Hz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.08.03
6.04.03.08
The maximum SRF Cavity Slow Tuner resolution shall be ± 5 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.08.04
6.04.03.08
DELETE
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.01
6.04.03.08
All cryomodule surfaces accessible to workers shall be within the temperature range of 283 to 333 K
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.02
6.04.03.08
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME B31.3.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.03
6.04.03.08
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME BPVC.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.04
6.04.03.08
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASTM C1055.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.05
6.04.03.08
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.06
6.04.03.08
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards, as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70E.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.07
6.04.03.08
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.08
6.04.03.08
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.09
6.04.03.08
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.09.10
6.04.03.08
The SRF Cryomodule shall be designed to meet all applicable standards as directed by the DOE Vacuum Vessel Consensus Standards.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.01
6.04.03.08
The SRF Cryomodule maximum length shall be 5.21 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.02
6.04.03.08
The SRF Cryomodule maximum width shall be 1.37 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.03
6.04.03.08
The SRF Cryomodule maximum height shall be 2.67 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.04
6.04.03.08
The maximum distance from the beamline to the extremity of the FPC warm side elbow shall be TBD m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.05
6.04.03.08
The maximum width of the FPC warm side elbow shall be TBD m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.06
6.04.03.08
The distance from the beamline to the tunnel floor shall be 1.27 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.07
6.04.03.08
The Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 300 μm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.08
6.04.03.08
The Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 300 μm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.09
6.04.03.08
The Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.10
6.04.03.08
The Cavity Electromagnetic Center Alignment Tolerance for the roll (w.r.t. Z-axis) shall be ± TBD degrees.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.11
6.04.03.08
The Cavity Electromagnetic Center Alignment Tolerance for the pitch (w.r.t. X-axis) shall be ± 1.0 degrees.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.12
6.04.03.08
The Cavity Electromagnetic Center Alignment Tolerance for the yaw (w.r.t. Y-axis) shall be ± 0.1 degrees.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.10.13
6.04.03.08
The SRF Cryomodule cryogenic valve box minimum vertical stay clear height above the cryomodule shall be 0.92m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.11.01
6.04.03.08
Conditioning for individual cavities shall have a maximum average cryogenic power dissipation of 200 W.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.11.02
6.04.03.08
Conditioning for individual cavities shall be achieved with a maximum temperature of 2.1 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.12.01
6.04.03.08
The SRF Cryomodule shall be capable of withstanding a maximum allowable vertical acceleration of 4 G.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.12.02
6.04.03.08
The SRF Cryomodule shall be capable of withstanding a maximum allowable lateral acceleration of 1.5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.12.03
6.04.03.08
The SRF Cryomodule shall be capable of withstanding a maximum allowable beamline axis acceleration of 5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.12.04
6.04.03.08
The SRF Cryomodule shall be designed to withstand a minimum tilt around the beamline axis (roll) of ± 0.26 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.13.01
6.04.03.08
The SRF Cryomodule maximum design ambient magnetic field amplitude shall be 700 mG.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.13.02
6.04.03.08
The minimum magnetic shield attenuation factor at SRF cavity equator shall be 50.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.13.03
6.04.03.08
The maximum thermal radiative heat transfer to all 2K and 5K surfaces shall be 2 W/m^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.13.04
6.04.03.08
The maximum thermal radiative heat transfer to all 50K surfaces shall be 2 W/m^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.14.01
6.04.03.08
The SRF Cryomodule shall be designed to meet or exceed the maximum working pressures defined by the EIC pressure document (Document No. TBD).
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-CCAV:197.15.01
6.04.03.08
The SRF Cryomodule HOM Damper maximum broadband power shall be 5 kW.
04/23/2026
Approved
FALSE

HSR-RF-SRF-CCAV:394 : HSR Main RF Split1 Mode (WBS 6.08.05.05)

P-HSR-RF-SRF-CCAV:394.01
6.08.04.05
The SRF CM shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.02
6.08.04.05
The cavity helium bath maximum operational temperature shall be TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.03
6.08.04.05
The cavity helium bath maximum operational pressure shall be TBD mbar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.04
6.08.04.05
The cavity helium bath operation pressure stability shall be ±TBD mbar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.05
6.08.04.05
The maximum helium supply operational temperature shall be TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.06
6.08.04.05
nan
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.07
6.08.04.05
The range of the combined helium return temperature shall be TBD to TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.08
6.08.04.05
The range of the combined helium return pressure shall be TBD to TBD bar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.09
6.08.04.05
The maximum sub-atmospheric helium return temperature shall be TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.10
6.08.04.05
The maximum Subatmospheric helium return pressure shall be TBD mbar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.11
6.08.04.05
The minimum cooldown rate of the SRF cavity between 300K and 4.5K shall be TBD K/hour
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.12
6.08.04.05
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be TBD K/hour
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.13
6.08.04.05
The SRF CM shall achieve steady state temperature with the cavity bath at 4K in a maximum of TBD days
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.14
6.08.04.05
The chilled water and low-conductivity water operational temperature range shall be TBD to TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.15
6.08.04.05
The chilled water and low-conductivity water operational pressure range shall be TBD to TBD bar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.16
6.08.04.05
The minimum magnetic shield attenuation factor at SRF cavity equator shall be TBD
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.17
6.08.04.05
The SRF CM shall operate through a minimum of TBD thermal cycles
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.18
6.08.04.05
The minimum SRF Cavity Slow tuner minimum lifetime shall be TBD years
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.19
6.08.04.05
The minimum SRF CM Slow Tuner 1% range tuning cycles shall be TBD cycles
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.20
6.08.04.05
The minimum SRF CM Slow Tuner full range tuning cycles shall be TBD cycles
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.21
6.08.04.05
The manufactured SRF CM Cavity shall produce no field emission at TBD MV
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.22
6.08.04.05
The SRF CM components that are not replaceable in-situ shall be designed with a radiation tolerance greater than TBD MGy
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.23
6.08.04.05
The SRF CM components that are replaceable in-situ shall have a radiation tolerance greater than TBD kGy
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.24
6.08.04.05
The active SRF cavity tuning mechanism components (bearings/motor/piezo) shall be replaceable and maintainable in-situ.
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.25
6.08.04.05
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.26
6.08.04.05
The SRF CM instrument should have maximized instruments that can be maintained and replaced in-situ
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.27
6.08.04.05
The SRF maximum (per cavity) RF longitudinal impedance shall be TBD MΩ GHz
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.28
6.08.04.05
The SRF maximum (per cavity) RF horizontal impedance shall be TBD MΩ/m
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.29
6.08.04.05
nan
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.30
6.08.04.05
The minimum cavity aperture radius shall be TBD mm
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.31
6.08.04.05
The maximum broadband RF power emitted from the CM shall be TBD kW
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.32
6.08.04.05
The Maximum Quadrupole multipole content shall be TBD mT
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.33
6.08.04.05
The Maximum Sextupole multipole content shall be TBD mT/m
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.34
6.08.04.05
The Maximum Octupole multipole content shall be TBD T/m^2
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.35
6.08.04.05
The Maximum Decapole multipole content shall be TBD T/m^3
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.36
6.08.04.05
The SRF cavity minimum manufactured quality factor (Qo) shall be TBD
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.37
6.08.04.05
The SRF cavity minimum manufactured voltage shall be TBD MV
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.38
6.08.04.05
The SRF cavity fundamental power coupler Qext shall be TBD
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.39
6.08.04.05
The SRF cavity field probe Qext range shall be TBD
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.40
6.08.04.05
The SRF cavity nominal cold frequency shall be TBD MHz
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.41
6.08.04.05
The SRF cavity maximum Niobium temperature shall be TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.42
6.08.04.05
The SRF Pressure sensitivity maximum shall be TBD Hz/mBar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.43
6.08.04.05
The SRF maximum Lorentz force detuning shall be TBD Hz/(Mv/m)^2
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.44
6.08.04.05
The warm beamline maximum vacuum shall be TBD mbar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.45
6.08.04.05
The cold beamline maximum vacuum shall be TBD mbar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.46
6.08.04.05
The beamline vacuum maximum leak rate shall be TBD mbar L/s
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.47
6.08.04.05
The warm insulating maximum vacuum shall be TBD mbar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.48
6.08.04.05
The cold insulating maximum vacuum shall be TBD mbar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.49
6.08.04.05
The insulating vacuum maximum leak rate shall be TBD mbar L/s
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.50
6.08.04.05
The minimum SRF Cavity Slow Tuner tuning range shall be shall be -TBD, +TBD kHz
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.51
6.08.04.05
The minimum SRF Cavity slow tuner tuning rate shall be TBD Hz/s
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.52
6.08.04.05
The maximum SRF Cavity Slow Tuner resolution shall be TBD Hz
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.53
6.08.04.05
The maximum SRF Cavity Slow Tuner hysteresis shall be ±TBD Hz
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.54
6.08.04.05
The external warm maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.55
6.08.04.05
The external cold maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.56
6.08.04.05
The internal maximum allowable working pressure of the SRF cavity shall not exceed TBD bar
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.57
6.08.04.05
All cryomodule surfaces accessible to workers shall be within the temperature range of TBD to TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.58
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASME B31.3
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.59
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASME BPVC
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.60
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by ASTM C1055
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.61
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by NFPA 70
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.62
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.63
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the EIC code of records to meet all applicable safety standards as defined by NFPA 70E
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.64
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.65
6.08.04.05
The SRF CM shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.66
6.08.04.05
The SRF CM maximum length shall be TBD m
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.67
6.08.04.05
The SRF CM maximum width shall be TBD m
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.68
6.08.04.05
The SRF CM maximum height shall be TBD m
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.69
6.08.04.05
nan
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.70
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ±TBD μm
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.71
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ±TBD μm
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.72
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ±TBD mm
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.73
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ±TBD degrees
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.74
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ±TBD degrees
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.75
6.08.04.05
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ±TBD degrees
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.76
6.08.04.05
Conditioning for individual cavities shall have a maximum average cryogenic power dissipation of TBD W
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.77
6.08.04.05
Conditioning for individual cavities shall be achieved with a maximum temperature of TBD K
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.78
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable vertical acceleration of TBD G
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.79
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable lateral acceleration of TBD G
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.80
6.08.04.05
The SRF CM shall be capable of withstanding a maximum allowable beamline axis acceleration of TBD G
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.81
6.08.04.05
The SRF Cryomodule shall be designed to withstand a minimum tilt around the beamline axis (roll) of ±0.26 radians.
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.82
6.08.04.05
The SRF Cryomodule loaded quality factor shall be TBD ± TBD.
04/23/2026
In Process
FALSE

P-HSR-RF-SRF-CCAV:394.83
6.08.04.05
The SRF Cryomodule FPC external quality factor balance shall be TBD.
04/23/2026
In Process
FALSE

HSR-RF-SRF-ACAV:591S

HSR-RF-SRF-NCRF

HSR-RF-SRF-NCRF-ACAV:591S

P-HSR-RF-SRF-NCRF-ACAV:591S.01.01
6.02.03.07.01
The SRF Cryomodule shall be outfitted with flow control, thermometry, pressure, and RF instrumentation as to monitor and control all sub-systems during the cooldown, warm-up, operation and testing.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.01
6.02.03.07.01
The cavity helium bath maximum designed operational temperature shall be 2 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.02
6.02.03.07.01
The cavity helium bath maximum designed operational pressure shall be 30 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.03
6.02.03.07.01
The cavity helium bath designed operational pressure stability shall be ±0.1 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.04
6.02.03.07.01
The SRF Cryomodule cavity helium jacket shall have a minimum helium bath vapor surface area of 0.049 m^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.05
6.02.03.07.01
The maximum designed helium supply operational temperature shall be 5.5 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.06
6.02.03.07.01
The range of the designed helium supply operational pressure shall be 3 to 3.5 bar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.07
6.02.03.07.01
The range of the designed combined helium return temperature shall be 20 to 100 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.08
6.02.03.07.01
The range of the designed combined helium return pressure shall be 2.4 to 2.6 bar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.09
6.02.03.07.01
The maximum designed sub-atmospheric helium return temperature shall be 4.5 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.10
6.02.03.07.01
The maximum designed sub-atmospheric helium return pressure shall be 30 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.11
6.02.03.07.01
The minimum cooldown rate of the SRF cavity between 300K to 150K shall be 10 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.12
6.02.03.07.01
The minimum cooldown rate of the SRF cavity between 150K to 50K shall be 30 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.13
6.02.03.07.01
The minimum cooldown rate of the SRF cavity between 50K to 4.5K shall be 10 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.14
6.02.03.07.01
The minimum cooldown rate of the SRF cavity between 4.5K to 2K shall be 0.5 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.15
6.02.03.07.01
The minimum warmup rate of the SRF cavity between 50K to 150K shall be 30 K/hour.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.16
6.02.03.07.01
The SRF Cryomodule shall achieve steady state temperature with the cavity bath at 4K in a maximum of 2 days.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.02.17
6.02.03.07.01
The SRF Cryomodule shall achieve a full warm-up cycle from 4K to 295K in a maximum of 2 days.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.03.01
6.02.03.07.01
The SRF Cryomodule cooling water subsystem shall be designed to utilize the supply characteristics as defined by the EIC Infrastructure Utility Requirements Document (Doc. No. EIC-IFD-RSI-012).
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.01
6.02.03.07.01
The SRF Cryomodule shall operate through a minimum of 200 thermal cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.02
6.02.03.07.01
The minimum SRF Cryomodule Slow Tuner 1% range tuning cycles shall be 100,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.03
6.02.03.07.01
The minimum SRF Cryomodule Slow Tuner full range tuning cycles shall be 1,000 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.04
6.02.03.07.01
The minimum SRF Cryomodule fast tuner 5% range tuning cycles shall be 2x10^10 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.05
6.02.03.07.01
The minimum SRF Cryomodule fast tuner full range tuning cycles shall be 6x10^6 cycles.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.06
6.02.03.07.01
The manufactured SRF Cryomodule Cavity shall produce no measurable field emission above background for all operational voltage cases.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.07
6.02.03.07.01
The SRF Cryomodule components that cannot be maintained in-situ shall be designed with a minimum lifetime radiation tolerance of 1 MGy.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.08
6.02.03.07.01
The SRF Cryomodule components that can be maintained in-situ shall have an annual minimum radiation tolerance of 1 kGy.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.09
6.02.03.07.01
The active SRF cavity tuning mechanism components (motor/gearbox/drive mechanism) shall be replaceable and maintainable in-situ.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.04.10
6.02.03.07.01
All critical monitoring and control instruments that cannot be maintained in-situ shall utilize a back-up instrument.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.01
6.02.03.07.01
The total SRF maximum RF longitudinal impedance (accelerator definition) shall be 52 MΩ Ghz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.02
6.02.03.07.01
The total SRF maximum RF horizontal impedance (accelerator definition) shall be 24 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.03
6.02.03.07.01
The total SRF maximum RF vertical impedance (accelerator definition) shall be 24 MΩ/m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.04
6.02.03.07.01
The minimum cavity aperture radius shall be 30 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.05
6.02.03.07.01
The maximum broadband RF power emitted from the cryomodule shall be 30 kW for all EIC design energies and currents.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.06
6.02.03.07.01
The SRF Cryomodule shall be designed to operate with a beam current up to 1 A.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.07
6.02.03.07.01
The SRF Cryomodule loaded quality factor shall be 1.1e6 ± 0.2e5.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.05.08
6.02.03.07.01
The SRF cryomodule FPC external quality factors shall all be within ± 0.1e6 of all other FPC external quality factor design values.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.01
6.02.03.07.01
The SRF cavity minimum manufactured quality factor (Qo) shall be 1.5E10.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.02
6.02.03.07.01
The SRF cavity minimum manufactured voltage shall be 4.4MV.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.03
6.02.03.07.01
The SRF cavity field probe Qext range shall be 1.00E11 to 2.00E11.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.04
6.02.03.07.01
THe SRF cavity nominal cold frequency shall be 591.149 MHz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.05
6.02.03.07.01
The SRF pressure sensitivity maximum shall be 10 Hz/mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.06
6.02.03.07.01
The SRF maximum lorentz force detuning shall be 5 Hz/(MV/m)^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.07
6.02.03.07.01
The SRF cavity maximum Niobium temperature shall be 5 K during operation.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.06.08
6.02.03.07.01
The SRF cavity shall be designed to handle a minimum forward power of 120 kW.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.07.01
6.02.03.07.01
The warm beamline maximum vacuum shall be 5.0e-7 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.07.02
6.02.03.07.01
The cold beamline maximum vacuum shall be 1.0e-9 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.07.03
6.02.03.07.01
The beamline vacuum maximum leak rate shall be 5e-10 mbar L/s.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.07.04
6.02.03.07.01
The warm insulating maximum vacuum shall be 1.0e-5 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.07.05
6.02.03.07.01
The cold insulating maximum vacuum shall be 5.0e-7 mbar.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.07.06
6.02.03.07.01
The insulating vacuum maximum leak rate shall be 1.0e-8 mbar L/s.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.01
6.02.03.07.01
The minimum SRF Cavity Slow Tuner tuning range shall be 600 kHz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.02
6.02.03.07.01
The minimum SRF Cavity slow tuner tuning rate shall be 800 Hz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.03
6.02.03.07.01
The maximum SRF Cavity Slow Tuner resolution shall be ± 1 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.04
6.02.03.07.01
The maximum SRF Cavity Slow Tuner hysteresis shall be ± 20 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.05
6.02.03.07.01
The minimum SRF Cavity Fast Tuner tuning range shall be 400 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.06
6.02.03.07.01
The minimum SRF Cavity Fast Tuner resolution shall be ±1 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.07
6.02.03.07.01
The minimum SRF Cavity Fast Tuner tuning rate shall be 10000 Hz/s.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.08.08
6.02.03.07.01
The maximum SRF Cavity Fast Tuner hysteresis shall be ±1 Hz.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.01
6.02.03.07.01
All cryomodule surfaces accessible to workers shall be within the temperature range of 283 to 333 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.02
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME B31.3.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.03
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASME BPVC.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.04
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by ASTM C1055.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.05
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.06
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards,as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA), and defined by NFPA 70E.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.07
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by API 520 & API 521.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.08
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by CGA S1.3.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.09
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured as directed by the JLAB ES&H Manual to meet all applicable safety standards as defined by AWS.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.09.10
6.02.03.07.01
The SRF Cryomodule shall be designed and manufactured to meet all applicable standards as directed by the DOE Vacuum Vessel Consensus Standards.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.01
6.02.03.07.01
The SRF Cryomodule maximum length shall be 7.2 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.02
6.02.03.07.01
The SRF Cryomodule maximum width shall be 2.15 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.03
6.02.03.07.01
The SRF Cryomodule maximum height shall be 1.7 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.04
6.02.03.07.01
The SRF cryomodule cavity beam axis to the tunnel floor shall be vertically alignable to 1381.09 ± 20 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.05
6.02.03.07.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in X shall be ± 250 μm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.06
6.02.03.07.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Y shall be ± 250 μm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.07
6.02.03.07.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance in Z shall be ± 5 mm.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.08
6.02.03.07.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the roll shall be ± 0.04 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.09
6.02.03.07.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the pitch shall be ± 0.01 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.10
6.02.03.07.01
The SRF Cryomodule Cavity Electromagnetic Center Alignment Tolerance for the yaw shall be ± 0.01 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.11
6.02.03.07.01
The SRF Cryomodule cryogenic box maximum height shall be 2.1m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.12
6.02.03.07.01
The SRF Cryomodule cryogenic box maximum width shall be 1.0 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.13
6.02.03.07.01
The SRF Cryomodule cryogenic box maximum length (not including vacuum jacketed lines) shall be 1.5 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.10.14
6.02.03.07.01
The SRF Cryomodule cryogenic valve box minimum vertical stay clear height above the cryomodule shall be 0.92 m.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.11.01
6.02.03.07.01
Conditioning for individual components shall have a maximum average cryogenic power dissipation of 200 W.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.11.02
6.02.03.07.01
Conditioning for individual components shall be achieved with a maximum helium bath temperature of 2.1 K.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.12.01
6.02.03.07.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable vertical acceleration of ±4 G.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.12.02
6.02.03.07.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable lateral acceleration of ±1.5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.12.03
6.02.03.07.01
The SRF Cryomodule shall be capable of withstanding a maximum allowable beamline axis acceleration of ±5 G.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.12.04
6.02.03.07.01
The SRF Cryomodule shall be designed to withstand a tilt around the beamline axis (roll) up to ± 0.03 radians.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.13.01
6.02.03.07.01
The SRF cryomodule maximum design ambient magnetic field amplitude shall be 700 mG.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.13.02
6.02.03.07.01
The minimum magnetic shield attenuation factor at SRF cavity equator shall be 250.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.13.03
6.02.03.07.01
The maximum thermal radiative heat transfer to all 2K and 5K surfaces shall be 2 W/m^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.13.04
6.02.03.07.01
The maximum thermal radiative heat transfer to all 50K surfaces shall be 5 W/m^2.
04/23/2026
Approved
FALSE

P-HSR-RF-SRF-NCRF-ACAV:591S.14
6.02.03.07.01
The SRF Cryomodule shall be designed to meet or exceed the maximum working pressures defined by the EIC pressure document (Document No. JL017600-MAWP).
04/23/2026
Approved
FALSE