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Hadron Injector System Requirements

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

Name
WBS
Description
Updated
Status
TBD
HIN : HSR Hadron Ring Injection System (WBS 6.02.03)

F-HIN.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.
10/12/2026
Approved
FALSE

F-HIN.08.02
6.02.03
The HSR induction septum shall provide a half physical aperture greater than 5σ for the injected beam.
10/12/2026
Approved
FALSE

F-HIN.08.03
6.02.03
The HSR induction septum shall provide a half physical aperture greater than 6σ for the circulating beam.
10/12/2026
Approved
FALSE

F-HIN.11
6.02.03
The HSR Injection line shall have a temporary beam dump for commissioning with the same requirements as the existing W-line beam dump.
10/12/2026
Approved
FALSE

F-HIN.12
6.02.03
The HSR Injection line shall have strategically placed beam dump for machine protection, commissioning and diagnostics as required.
10/12/2026
Approved
FALSE

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

F-HIN.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.
10/12/2026
Approved
FALSE

F-HIN.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.
10/12/2026
Approved
FALSE

F-HIN.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.
10/12/2026
Approved
FALSE

F-HIN.04
6.02.03
The HSR injection transport beamline shall be able to transport polarized beam with less than 5% polarization loss.
10/12/2026
Approved
FALSE

F-HIN.05
6.02.03
The HSR injection system shall be able to inject all beam species with less than 5% beam emittance increase.
10/12/2026
Approved
FALSE

F-HIN.06
6.02.03
The HSR injection system shall be able to fill the HSR with 290 consecutive bunches without interruption.
10/12/2026
Approved
FALSE

F-HIN.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.
10/12/2026
Approved
FALSE

F-HIN.08
6.02.03
The HSR injection system transfer line shall provide the following physical aperture:
10/12/2026
Approved
FALSE

F-HIN.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].
10/12/2026
Approved
FALSE

F-HIN.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.
10/12/2026
Approved
FALSE

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

HIN-MAG-GRST : HSR Hadron Ring Injection Magnet Girders (WBS 6.02.02.03.03)

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.02
6.02.02.03.03
The first natural frequency of the installed magnet–girder assembly (movers locked) shall be ≥ 20 (Hz).
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.03
6.02.02.03.03
The natural frequency of the installed magnet–girder assembly (movers locked) shall be avoid 60 (Hz).
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.04
6.02.02.03.03
The girder alighment mechanism shall provide a minimum roll and pitch range of ± 200 (µrad) .
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

P-HIN-MAG-GRST.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.
10/12/2026
Approved
FALSE

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

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

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

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

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

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

HIN-MAG-QD2 : HIN Quadrupole Magnet (QD2) (WBS 6.02.03.03.03)

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

HIN-MAG-YQ1 : HIN Quadrupole Magnet (YQ1) (WBS 6.02.03.03.03)

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

HIN-MAG-Q:60 : HIN Quadrupole Magnet (Q:60) (WBS 6.02.03.03.04)

HIN-MAG-Q:80 : HIN Quadrupole Magnet (Q:80) (WBS 6.02.03.03.04)

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

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

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

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

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

HIN-PS-Q:100 : HIN Quadrupole Magnet (Q:100) Power Supply (WBS 6.02.03.04)

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

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

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

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

HIN-PS-QD2 : HIN Quadrupole Magnet (QD2) Power Supply (WBS 6.02.03.04)

HIN-PS-QLA:100 : HIN Large Aperture Quadrupole Magnet (QLA:100) Power Supply (WBS 6.02.03.04)

P-HIN-PS-QLA:100.01
The magnet model being powered shall be the HSR INJ MAGNET QLA:100
10/12/2026
Approved
FALSE

P-HIN-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]]
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-PS-QLA:100.04
The QLA:100 power supply shall provide a DC current.
10/12/2026
Approved
FALSE

P-HIN-PS-QLA:100.04.01
The power supply shall include the current tuning margin of 10%.
10/12/2026
Approved
FALSE

P-HIN-PS-QLA:100.04.02
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.04.03
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.04.04
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.04.05
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.05
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.06
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-PS-QLA:100.06.02
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.07
The QLA:100 power supply shall provide a minimal current setpoint resolution of 16(Bit).
10/12/2026
Approved
FALSE

P-HIN-PS-QLA:100.08
The QLA:100 power supply synchronization timing of synchronization shall be 100(us).
10/12/2026
Approved
FALSE

P-HIN-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.
10/12/2026
Approved
FALSE

P-HIN-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.
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-PS-QLA:100.09.02
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.03
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.04
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.05
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.06
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.07
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.08
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.09
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.09.10.00
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-PS-QLA:100.11.01
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.11.02
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.11.03
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.11.04
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.11.05
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.11.06
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

P-HIN-PS-QLA:100.11.07
< Requirement Not Applicable >
10/12/2026
Not Applicable
FALSE

HIN-PS-YQ1 : HIN Quadrupole Magnet (YQ1) Power Supply (WBS 6.02.03.04)

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

F-HIN-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.
10/12/2026
Approved
FALSE

F-HIN-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]
10/12/2026
Approved
FALSE

F-HIN-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.
10/12/2026
Approved
FALSE

F-HIN-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.
10/12/2026
Approved
FALSE

F-HIN-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.
10/12/2026
Approved
FALSE

F-HIN-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.
10/12/2026
Approved
FALSE

F-HIN-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.
10/12/2026
Approved
FALSE

F-HIN-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.
10/12/2026
Approved
FALSE

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

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-INST-BC.06
6.02.03.05.07
The HSR Injection beamline bunch charge monitor sensor shall operate in ultra-high vacuum.
10/12/2026
Approved
FALSE

P-HIN-INST-BC.07
6.02.03.05.07
The HSR Injection beamline bunch charge monitor system shall have a remote controlled self calibration system.
10/12/2026
Approved
FALSE

P-HIN-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.
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-INST-BC.10
6.02.03.05.07
The HSR Injection beamline bunch charge monitor shall be a radiation hardened device.
10/12/2026
Approved
FALSE

HIN-INST-BC-CM : HIN INST BC Charge Monitor

HIN-INST-BC-ELEC : HIN INST BC Electrical Systems

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

HIN-INST-BLM-ELEC : HIN INST Beam Loss Monitor Electronics

HIN-INST-BLM-PU : HIN INST Beam Loss Monitor Pickup

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

HIN-INST-BPM-ELEC : HIN INST Beam Position Monitor Electronics

HIN-INST-BPM-PU : HIN INST Beam Position Monitor Pickup

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

HIN-INST-PM-CM : HIN INST Profile Monitor Charge Monitor

HIN-INST-PM-ELEC : HIN INST Profile Monitor Electronics

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

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

HIN-PPD-MAG : HIN PPD Magnet Systems

HIN-PPD-MAG-DCSPTM : HIN PPD DC Septum Magnet

P-HIN-PPD-MAG-DCSPTM.01
6.02.03.11.03
The magnet shall be a single function DC septum with vertical dipole field.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.02
6.02.03.11.03
The DC septum physical magnet length shall be 2.5 m.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.03
6.02.03.11.03
The DC septum thickness shall be less than or equal to 21.2 (mm), inclusive of beampipe wall thicknesses, and be able to accommodate the transfer line beampipe.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.04
6.02.03.11.03
The DC septum shall be designed to fit within the following constraints:
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.04.01
6.02.03.11.03
The DC septum shall fit within an envelope of L=3.1 (m) x W=0.6 (m) x H=1.8 (m).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.04.02
6.02.03.11.03
The DC septum pole gap height and width shall be H=27.432 (mm), W=128.803 (mm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.05
6.02.03.11.03
The DC septum 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)
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.05.01
6.02.03.11.03
The DC septum install center displacement (measured with respect to the nominal magnet center position) shall be dX=±150 (µm), dY=±150 (µm), dZ= ±150 (µm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.05.02
6.02.03.11.03
The DC septum install rotational alignment (measured with respect to the nominal beam axis) shall be X= ±0.1 (mrad)), Y=±0.1 (mrad), Z=±0.2 (mrad).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.06
6.02.03.11.03
The DC septum integrated dipole field shall provide a deflection angle of at least ~27 (mrad) with a peak field in the magnet held below 1 (T).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.08
6.02.03.11.03
The DC septum field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis)
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.08.01
6.02.03.11.03
The DC septum field center displacement (measured with respect to the physical magnet center) shall be X= ±50 (µm), Y= ±50 (µm), Z= ±50 (µm)
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.08.02
6.02.03.11.03
The DC septum field rotational alignment (measured with respect to the physical magnet’s primary axis X, Y, Z) shall be X=±0.1(mrad), Y=±0.1(mrad), Z=±0.2(mrad)
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.09
6.02.03.11.03
The DC septum shall be designed to meet the following field quality\multipole requirements.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.09.01
6.02.03.11.03
The DC septum harmonic reference radius at which the field quality shall be measured is 25 (mm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.09.02
6.02.03.11.03
The DC septum field (Bref) or design energy or beam rigidity for which the field quality shall be measured are 52.03 (Tm) and 81.12 (Tm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10
6.02.03.11.03
The DC septum shall have the following Multipole content or dB/B within the specified measurement volumes:
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.01
6.02.03.11.03
b1 = 10000, a1 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.02
6.02.03.11.03
b2 < ±10, a2 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.03
6.02.03.11.03
b3 < ±10, a3 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.04
6.02.03.11.03
b4 < ±10, a4 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.05
6.02.03.11.03
b5 < ±10, a5 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.06
6.02.03.11.03
b6 < ±10, a6 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.07
6.02.03.11.03
b7 < ±10, a7 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.08
6.02.03.11.03
b8 < ±10, a8 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.09
6.02.03.11.03
b9 < ±10, a9 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.10
6.02.03.11.03
b10 <±10, a10 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.11
6.02.03.11.03
b11 < ±10, a11 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.12
6.02.03.11.03
b12 < ±10, a12 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.13
6.02.03.11.03
b13 < ±10, a13 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.14
6.02.03.11.03
b14 < ±10, a14 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.15
6.02.03.11.03
b15 < ±10, a15 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.10.16
6.02.03.11.03
b16 < ±10, a16 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.11
6.02.03.11.03
The DC septum fringe field shall not exceed 10 Gauss on the path of the circulating beam in HSR.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.12
6.02.03.11.03
The DC septum field shall have a field homogeneity of better than 1x10-3.
10/12/2026
Approved
FALSE

P-HIN-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.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.14
6.02.03.11.03
The DC septum shall be designed with components capable of withstanding a radiation dose of 1 (MGy)
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-DCSPTM.15
6.02.03.11.03
The DC septum design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over its planned operational life of >30 years.
10/12/2026
Approved
FALSE

HIN-PPD-MAG-HSLK : HIN PPD Stripline Kicker Magnet

P-HIN-PPD-MAG-HSLK.01
6.02.03.11.01
The magnets shall be horizontal stripline kickers.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.02
6.02.03.11.01
The stripline kicker location shall be in the HSR IR4 straight section.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.03
6.02.03.11.01
The stripline kicker shall fit within a slot length of 21.5 (m), which includes the bellows length.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.04
6.02.03.11.01
The stripline kicker shall fit within an overall slot height and width that prevents interference with the ESR beamline.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.05
6.02.03.11.01
The stripline kicker install center and install alignment must be within a translational value of ±100 (µm) and a rotational alignment value of ±0.2 (mrad).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.06
6.02.03.11.01
The stripline kicker shall maintain a minimum horizontal full aperture of 59 (mm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.07
6.02.03.11.01
The total deflecting angle for the sum of all stripline kickers shall be 0.7 (mrad).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.08
6.02.03.11.01
The stripline kicker characteristic impedance shall be 50 (Ω).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.09
6.02.03.11.01
The maximum stripline kicker voltage shall be ±22,000 (V), 44,000 (V) across both kickers.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.10
6.02.03.11.01
The field variation between stripline kicker modules shall be less than 1 (%).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.11
6.02.03.11.01
The stripline kicker electric field shall have a field homogeneity of better than 5E-3 across X and Y dimensions in the center of the kicker.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.12
6.02.03.11.01
The stripline kicker voltage rise time (2–98 % of full-scale amplitude) shall be < 9 (ns).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.13
6.02.03.11.01
The stripline kicker voltage fall time (98–2 % of full-scale amplitude) shall be < 1 (us).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.14
6.02.03.11.01
The stripline kicker flat top time shall be longer than 35 (ns).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.15
6.02.03.11.01
The stripline kicker flat top repeatability shall be ±1 (%).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.16
6.02.03.11.01
The uniformity of the stripline kicker flattop shall be ±1 (%).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.17
6.02.03.11.01
The stripline kicker burst mode shall support a repetition rate of 4 pulses separated by 100 (ms) repeated every AGS cycle.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.18
6.02.03.11.01
The stripline kicker jitter of the rise time between the positive and negative voltage shall be less than ±0.5 (ns).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.19
6.02.03.11.01
The stripline kicker jitter of the rise time between all kicker modules shall be less than ±0.5 (ns).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.20
6.02.03.11.01
The stripline kicker electrodes shall be electrically conductive to meet the required coupling impedance.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.21
6.02.03.11.01
The stripline kicker electrode shall be coated with a material appropriate to minimize electron cloud effects.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.22
6.02.03.11.01
The stripline kicker shall be designed with components capable of withstanding a radiation dose of 1 (MGy).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-HSLK.23
6.02.03.11.01
The stripline kicker design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over its planned operational life of >30 years.
10/12/2026
Approved
FALSE

HIN-PPD-MAG-INDSPTM : HIN PPD Induction Septum Magnet

P-HIN-PPD-MAG-INDSPTM.01
6.02.03.11.02.01.01
The magnet shall be a single function induction septum with vertical dipole field.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.02
6.02.03.11.02.01.01
The induction septum physical magnet length shall be 1.3 (m).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.03
6.02.03.11.02.01.01
The induction septum thickness shall be less than or equal to 4 (mm), inclusive of beampipe wall thicknesses, and be able to accommodate the transfer line beampipe.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.04
6.02.03.11.02.01.01
The induction septum shall be designed to fit within the following constraints:
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.04.01
6.02.03.11.02.01.01
The induction septum pole gap height and width shall be H=TBD (mm), W= TBD (mm)
10/12/2026
Reviewed
FALSE

P-HIN-PPD-MAG-INDSPTM.04.02
6.02.03.11.02.01.01
The induction septum circulating beampipe shall be circular with an aperture of ~67 (mm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.05
6.02.03.11.02.01.01
The induction septum 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)
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.05.01
6.02.03.11.02.01.01
The induction septum install center displacement (measured with respect to the nominal magnet center position) shall be dX=±150 (µm), dY=±150 (µm), dZ= ±150 (µm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.05.02
6.02.03.11.02.01.01
The induction septum install rotational alignment (measured with respect to the nominal beam axis) shall be X=±0.1 (mrad), Y=±0.1 (mrad), Z=±0.2 (mrad).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.06
6.02.03.11.02.01.01
The induction septum integrated dipole field (B) shall provide a deflection angle of ~15 (mrad) (B ~0.936 T). With a peak field in the magnet held below 1 (T).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.07
6.02.03.11.02.01.01
The induction septum ramp rate shall be able to accommodate four (4) bunches per AGS cycle separated by 100 (ms).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.08
6.02.03.11.02.01.01
The induction septum field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis)
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.08.01
6.02.03.11.02.01.01
The induction septum field center displacement (measured with respect to the physical magnet center) shall be X=±150 (µm), Y=±150 (µm), Z=±150 (µm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.08.02
6.02.03.11.02.01.01
The induction septum field rotational alignment (measured with respect to the physical magnets primary axis X, Y, Z) shall be X=±0.1 (mrad), Y=±0.1 (mrad), Z=±0.2 (mrad).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.09
6.02.03.11.02.01.01
The induction septum shall be designed to meet the following field quality/multipole requirements.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.09.01
6.02.03.11.02.01.01
The harmonic reference radius at which the induction septum field quality shall be measured is 25(mm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.09.02
6.02.03.11.02.01.01
The field (Bref) or design energy or rigidity for which the induction septum field quality shall be measured are 52.03 (Tm) and 81.12 (Tm).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10
6.02.03.11.02.01.01
The induction septum shall have the following multipole content or dB/B within the specified measurement v olumes:
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.01
6.02.03.11.02.01.01
b1 = 10000, a1 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.02
6.02.03.11.02.01.01
b2 < ±10, a2 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.03
6.02.03.11.02.01.01
b3 < ±10, a3 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.04
6.02.03.11.02.01.01
b4 < ±10, a4 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.05
6.02.03.11.02.01.01
b5 < ±10, a5 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.06
6.02.03.11.02.01.01
b6 < ±10, a6 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.07
6.02.03.11.02.01.01
b7 < ±10, a7 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.08
6.02.03.11.02.01.01
b8 < ±10, a8 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.09
6.02.03.11.02.01.01
b9 < ±10, a9 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.10
6.02.03.11.02.01.01
b10 < ±10, a10 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.11
6.02.03.11.02.01.01
b11 < ±10, a11 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.12
6.02.03.11.02.01.01
b12 < ±10, a12 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.13
6.02.03.11.02.01.01
b13 < ±10, a13 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.14
6.02.03.11.02.01.01
b14 < ±10, a14 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.10.15
6.02.03.11.02.01.01
b15 < ±10, a15 ≤ ±10
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.11
6.02.03.11.02.01.01
The induction septum fringe field shall not exceed 10 Gauss on the path of the circulating beam in HSR.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.12
6.02.03.11.02.01.01
The induction septum field shall have a field homogeneity of better than 2x10-3.
10/12/2026
Approved
FALSE

P-HIN-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.
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.14
6.02.03.11.02.01.01
The induction septum shall be designed with components capable of withstanding a radiation dose of 1 (MGy).
10/12/2026
Approved
FALSE

P-HIN-PPD-MAG-INDSPTM.15
6.02.03.11.02.01.01
The induction septum design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over its planned operational life of >30 years.
10/12/2026
Approved
FALSE

HIN-PPD-PS : HIN PPD Power Supplies

HIN-PPD-PS-DCSPTM : HIN PPD DC Septum Magnet Power Supply

P-HIN-PPD-PS-DCSPTM.01
6.02.03.11.01
The magnet model being powered is the DC septum.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.02
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-196]
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.03
6.02.03.11.03.02
The DC septum power supply shall be a linear topology.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.04
6.02.03.11.03.02
The voltage to ground of the DC septum being powered shall be 50 (V).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.05
6.02.03.11.03.02
The DC septum power supply current type shall be DC.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.06
6.02.03.11.03.02
The DC septum power supply waveshape di/dt (slew rate) shall be adjustable to limit overvoltage on the magnet.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.07
6.02.03.11.03.02
The DC septum power supply AC Input voltage shall be 3 phase 480 (VAC).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.08
6.02.03.11.03.02
The minimum current the DC septum power supply must operate at shall be 0 (A).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.09
6.02.03.11.03.02
The maximum current the DC septum power supply must operate at shall be 5500 (A).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.10
6.02.03.11.03.02
The flat top current stability of DC septum power supply shall be 100 (ppm) of 60 (%) of rated current.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.11
6.02.03.11.03.02
The long term stability of the DC septum power supply shall be 100 (ppm) of full scale current.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.12
6.02.03.11.03.02
DC septum power supply shall have a max current ripple of 550 (mA) between 0.1 (Hz) and 10 (kHz).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-DCSPTM.13
6.02.03.11.03.02
The DC septum power supply current setpoint scaling shall be 0-10 (V) = 0-5500 (A).
10/12/2026
Approved
FALSE

HIN-PPD-PS-HSLK : HIN PPD Stripline Kicker Magnet Power Supply

P-HIN-PPD-PS-HSLK.01
6.02.03.11.01
The magnet model being powered is stripline kicker.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.02
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-196]
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.03
6.02.03.11.01
The stripline kicker power supply chassis and outer conductor of the high voltage output cable shall be grounded.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.04
6.02.03.11.01
The stripline kicker power supply shall provide a pulsed voltage.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.05
6.02.03.11.01
The stripline kicker power supply maximum voltage shall be at least 30 (kV).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.06
6.02.03.11.01
The stripline kicker power supply voltage rise time (2–98% of full-scale amplitude) shall be < 7 (ns).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.07
6.02.03.11.01
The stripline kicker power supply voltage fall time (98–2% of full-scale amplitude) shall be < 25 (ns).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.08
6.02.03.11.01
The stripline kicker power supply voltage flat top time shall be longer than 35 (ns).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.09
6.02.03.11.01
The stripline kicker power supply voltage flat top repeatability shall be ±1 (%).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-HSLK.10
6.02.03.11.01
The stripline kicker power supply uniformity of the flattop shall be ±1 (%).
10/12/2026
Approved
FALSE

P-HIN-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 < 1 (ns).
10/12/2026
Approved
FALSE

P-HIN-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.
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-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).
10/12/2026
Approved
FALSE

P-HIN-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.
10/12/2026
Approved
FALSE

HIN-PPD-PS-INDSPTM : HIN PPD Induction Septum Magnet Power Supply

P-HIN-PPD-PS-INDSPTM.01
6.02.03.11.01
The magnet model being powered is the induction septum.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.02
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-196]
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.03
6.02.03.11.02.02
The induction septum power supply shall be capable of powering a magnet with resistance of approximately 50 (mΩ).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.04
6.02.03.11.02.02
The induction septum power supply shall be capable of powering a magnet with a maximum inductance of 666.341 (µH).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.05
6.02.03.11.02.02
The voltage to ground of the induction septum being powered shall be TBD1 (V).
10/12/2026
Reviewed
FALSE

P-HIN-PPD-PS-INDSPTM.06
6.02.03.11.02.02
The induction septum power supply current waveform shall be a half sine wave.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.07
6.02.03.11.02.02
The induction septum power supply’s peak waveshape di/dt during ramping shall be TBD1.
10/12/2026
Reviewed
FALSE

P-HIN-PPD-PS-INDSPTM.08
6.02.03.11.02.02
The induction septum power supply shall be capable of producing 1267 (A) peak.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.09
6.02.03.11.02.02
The induction septum power supply peak current shall have a stability of 100 (ppm) of full scale current.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.10
6.02.03.11.02.02
The time period for the induction septum power supply to reach specified stability shall be no more than 6 (s).
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.11
6.02.03.11.02.02
The induction septum power supply current setpoint resolution (min size in bits) shall be TBD1 bits.
10/12/2026
Reviewed
FALSE

P-HIN-PPD-PS-INDSPTM.12
6.02.03.11.02.02
The induction septum power supply shall be capable of producing up to 960 (V) for a 3.2 (ms) pulse.
10/12/2026
Approved
FALSE

P-HIN-PPD-PS-INDSPTM.13
6.02.03.11.02.02
The induction septum power supply shall have an interlock for the magnet thermal switch.
10/12/2026
Approved
FALSE