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Interaction Region Requirements

General, functional and performance requirements associated with the Interaction Region of the Electron Ion Collider.

Name
WBS
Description
Updated
Status
TBD
IR : Interation Region Interface Requirements

G-IR.1
6.06
The IR shall guide the electron and hadron beams to sufficiently small spot sizes at the collision point, necessary to achieve the design luminosity set forth in [5.8].
01/27/2025
In Process
FALSE

G-IR.2
6.06
There shall be at least one interaction region and detector system in the EIC while maintaining the feasibility of adding a second.
01/27/2025
In Process
FALSE

G-IR.3
6.06
The IR shall be contained within the existing RHIC tunnel at one of the two wide angle hall detector buildings at IP6 and IP8 and the associated sectors.
01/27/2025
In Process
FALSE

G-IR.4
6.06
The IR shall accomadate the space for all other required EIC systems along with their installation needs
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.16
6.06.02
The IR hadron lattice design shall include a helical dipole (“snake”) on one side of the IP Parallel to the RHIC 7DUMMY in RHIC sector 11.
02/13/2025
In Process
FALSE

G-IR.5
6.06
The IR shall be designed to allow both the hadron and electron beam spins to be controlled at the IP, meeting all the requirements set forth in [5.8].
01/27/2025
In Process
FALSE

G-IR.6
6.06
The IR region shall be able to correct the HSR and ESR orbits as required to enable stable accelerator operation.
01/27/2025
In Process
FALSE

G-IR.7
6.06
The IR shall be designed to accommodate all the detector elements required to meet the physics goals of the EIC (as set forth in the [5.8])
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.4
6.06.02
The IR electron lattice machine elements shall be designed to accommodate a beam divergence of 220µrad vertically and horizontally.
02/13/2025
In Process
FALSE

G-IR.8
6.06
The IR shall be designed to minimize all background on the detector elements as required to meet the physics goals of the EIC.
01/27/2025
In Process
FALSE

G-IR.9
6.06
Provision shall be made at the wide-angle hall detector building at IR8 and within the associated sectors to allow it to accommodate a 2nd colliding beam interaction region with a low-beta section, spin rotators, and crab cavities.
01/27/2025
In Process
FALSE

G-IR.10
6.06
The design operational availability of the IR shall be consistent with the operational availability required for the overall EIC as set forth in [Ref to the released Global requirements doc here].
01/27/2025
In Process
FALSE

G-IR.11
6.06
All IR components and systems shall be designed and installed in line with all relevant regulatory codes and in full compliance with BNL SBMS.
01/27/2025
In Process
FALSE

G-IR.12
6.09
The IR shall have a cryogenic system to cool and operate all elements which need cryogenic cooling and will, where possible utlise the existing RHIC cooling system.
01/27/2025
In Process
FALSE

F-IR.1
6.06.02
The IR for the 1st EIC detector system shall be located at the IP of IR6.
01/27/2025
In Process
FALSE

F-IR.2
6.06.02
The IR shall guide the hadron and electron beams to collide at the IP of IR6.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-PS-QLS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-HSR-MAG-D5I.03
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.04
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.05
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.03
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.04
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.05
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.03
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.04
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.05
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.03
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.04
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.05
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.03
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.04
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.05
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-Q1.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

F-IR.3
6.06.02
The IR shall extend circumferentially around the RHIC tunnel between the periodic arc cells in the HSR/ESR at IR6.
01/27/2025
In Process
FALSE

F-IR.4
6.06.02
The IR electron and hadron beam lines shall have the linear lattice functions matched to the incoming and outgoing arcs of the ESR and HSR respectively.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-PS-QLS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-HSR-MAG-D5I.03
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.04
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.05
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.03
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.04
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.05
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.03
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.04
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.05
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.03
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.04
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.05
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.03
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.04
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.05
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-Q1.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

F-IR.5
6.06.02
The IR shall accommodate a stay clear volume around the IP, required to accommodate the EIC detector system.
01/27/2025
In Process
FALSE

F-IR.6
6.06.02
The IP at IR6 shall be moved from the original RHIC IR6 toward the RHIC center, as needed, to avoid the RCS.
01/27/2025
In Process
FALSE

F-IR.7
6.06.02
The IR crossing angle shall allow the low beta focusing magnets of both beams to be installed close to the IP
01/27/2025
In Process
FALSE

F-IR.8
6.06.02
The IR shall be designed to ensure the hadron and electron beam collisions at the IP meet all the performance requirements set forth in [5.8].
01/27/2025
In Process
FALSE

P-ESR-MAG-D13.01
6.04.02.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.02
6.04.02.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.2-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.03
6.04.02.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.3-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.05
6.04.02.01
The magnet shall have a Dipole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.06
6.04.02.01
The magnet field shall have a vertical field direction.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.09
6.04.02.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.12
6.04.02.01
The physical magnet length shall be <2.73 (m).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.15
6.04.02.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.15-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.18
6.04.02.01
The magnet-to-magnet variability shall be < 0.1%.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.19
6.04.02.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13-19-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.20
6.04.02.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21
6.04.02.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.1
6.04.02.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.2
6.04.02.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.3
6.04.02.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.4
6.04.02.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.5
6.04.02.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.6
6.04.02.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.7
6.04.02.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.8
6.04.02.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.9
6.04.02.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.10
6.04.02.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.11
6.04.02.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.12
6.04.02.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.13
6.04.02.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.14
6.04.02.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.15
6.04.02.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.16
6.04.02.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.22
6.04.02.01
The magnet shall not be designed to limit CrossTalk requirements.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.23
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.24
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.25
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.26
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.27
6.04.02.01
The magnet shall be designed to constrain the external fringe field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.28
6.04.02.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.29
6.04.02.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.31
6.04.02.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.46
6.04.02.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.47
6.04.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.01
6.04.02.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.02
6.04.02.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.2-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.03
6.04.02.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.3-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.05
6.04.02.01
The magnet shall have a Dipole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.06
6.04.02.01
The magnet field shall have a vertical field direction.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.09
6.04.02.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.10
6.04.02.01
The magnet good field aperture dAx required shall be 35.0345 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.12
6.04.02.01
The physical magnet length shall be <1.13 (m).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.15
6.04.02.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.15-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.18
6.04.02.01
The magnet-to-magnet variability shall be < 0.1%.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.19
6.04.02.01
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.19-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.20
6.04.02.01
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21
6.04.02.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.1
6.04.02.01
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.2
6.04.02.01
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.3
6.04.02.01
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.4
6.04.02.01
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.5
6.04.02.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.6
6.04.02.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.7
6.04.02.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.8
6.04.02.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.9
6.04.02.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.10
6.04.02.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.11
6.04.02.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.12
6.04.02.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.13
6.04.02.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.14
6.04.02.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.15
6.04.02.01
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.16
6.04.02.01
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.22
6.04.02.01
The magnet shall not be designed to limit CrossTalk requirements.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.27
6.04.02.01
The magnet shall be designed to constrain the external fringe field
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.28
6.04.02.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.29
6.04.02.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.31
6.04.02.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.46
6.04.02.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.47
6.04.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-PS-QLS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-SXT.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/27/2025
Reviewed
FALSE

P-ESR-PS-SXT.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.5
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.7
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.10
6.04.04
The PS current type shall be NC (DC or AC)
01/27/2025
Reviewed
FALSE

P-ESR-PS-SXT.11
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.12
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.13
6.04.04
The full power bandwidth required shall be TBD
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.15
6.04.04
The time period for specified stability shall be TBD s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.16
6.04.04
The short term stability shall be TBD A/s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.17
6.04.04
The long term stability shall be TBD A/s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.19
6.04.04
The synchronization required between PS's shall be TBD s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.26
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.27
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.28
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.29
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.30
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.31
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.32
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.35
6.04.04
The terminal voltage shall be TBD V
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.34
6.04.04
The magnet turns ratio shall be TBD
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.36
6.04.04
The design shall have thermal switches TBD
01/27/2025
In Process
FALSE

P-HSR-MAG-D5I.03
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.04
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.05
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.03
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.04
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.05
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.03
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.04
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.05
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.03
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.04
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.05
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.03
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.04
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.05
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-Q1.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

F-IR.9
6.06.02
The IR shall be designed so that the electron and hadron beams have the same cross-sectional area and maximum overlap to achieve the high luminosities required in [5.8].
01/27/2025
In Process
FALSE

P-ESR-MAG-D13.01
6.04.02.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.02
6.04.02.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.2-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.03
6.04.02.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.3-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.05
6.04.02.01
The magnet shall have a Dipole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.06
6.04.02.01
The magnet field shall have a vertical field direction.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.09
6.04.02.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.12
6.04.02.01
The physical magnet length shall be <2.73 (m).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.15
6.04.02.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.15-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.18
6.04.02.01
The magnet-to-magnet variability shall be < 0.1%.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.19
6.04.02.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13-19-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.20
6.04.02.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21
6.04.02.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.1
6.04.02.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.2
6.04.02.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.3
6.04.02.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.4
6.04.02.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.5
6.04.02.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.6
6.04.02.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.7
6.04.02.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.8
6.04.02.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.9
6.04.02.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.10
6.04.02.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.11
6.04.02.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.12
6.04.02.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.13
6.04.02.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.14
6.04.02.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.15
6.04.02.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.16
6.04.02.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.22
6.04.02.01
The magnet shall not be designed to limit CrossTalk requirements.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.23
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.24
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.25
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.26
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.27
6.04.02.01
The magnet shall be designed to constrain the external fringe field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.28
6.04.02.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.29
6.04.02.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.31
6.04.02.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.46
6.04.02.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.47
6.04.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.01
6.04.02.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.02
6.04.02.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.2-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.03
6.04.02.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.3-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.05
6.04.02.01
The magnet shall have a Dipole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.06
6.04.02.01
The magnet field shall have a vertical field direction.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.09
6.04.02.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.10
6.04.02.01
The magnet good field aperture dAx required shall be 35.0345 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.12
6.04.02.01
The physical magnet length shall be <1.13 (m).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.15
6.04.02.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.15-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.18
6.04.02.01
The magnet-to-magnet variability shall be < 0.1%.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.19
6.04.02.01
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.19-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.20
6.04.02.01
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21
6.04.02.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.1
6.04.02.01
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.2
6.04.02.01
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.3
6.04.02.01
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.4
6.04.02.01
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.5
6.04.02.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.6
6.04.02.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.7
6.04.02.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.8
6.04.02.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.9
6.04.02.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.10
6.04.02.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.11
6.04.02.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.12
6.04.02.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.13
6.04.02.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.14
6.04.02.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.15
6.04.02.01
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.16
6.04.02.01
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.22
6.04.02.01
The magnet shall not be designed to limit CrossTalk requirements.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.27
6.04.02.01
The magnet shall be designed to constrain the external fringe field
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.28
6.04.02.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.29
6.04.02.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.31
6.04.02.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.46
6.04.02.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.47
6.04.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-PS-QLS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-SXT.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/27/2025
Reviewed
FALSE

P-ESR-PS-SXT.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.5
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.7
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.10
6.04.04
The PS current type shall be NC (DC or AC)
01/27/2025
Reviewed
FALSE

P-ESR-PS-SXT.11
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.12
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.13
6.04.04
The full power bandwidth required shall be TBD
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.15
6.04.04
The time period for specified stability shall be TBD s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.16
6.04.04
The short term stability shall be TBD A/s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.17
6.04.04
The long term stability shall be TBD A/s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.19
6.04.04
The synchronization required between PS's shall be TBD s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.26
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.27
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.28
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.29
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.30
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.31
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.32
6.04.04
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-PS-SXT.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.35
6.04.04
The terminal voltage shall be TBD V
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.34
6.04.04
The magnet turns ratio shall be TBD
01/27/2025
In Process
FALSE

P-ESR-PS-SXT.36
6.04.04
The design shall have thermal switches TBD
01/27/2025
In Process
FALSE

P-HSR-MAG-D5I.03
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.04
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.05
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.03
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.04
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.05
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.03
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.04
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.05
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.03
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.04
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.05
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.03
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.04
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.05
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-Q1.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

F-IR.10
6.06.02
The IR shall separate the electron and hadron beams with a sufficiently small enough angle to limit the crab cavity voltage.
01/27/2025
In Process
FALSE

F-IR.11
6.06.02
The IR operational uptime shall match the operational uptime requirements of the EIC.
01/27/2025
In Process
FALSE

P-ESR-MAG-D13.01
6.04.02.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.02
6.04.02.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/-3.5 (%) of the Peak main bus field. (See figure P-ESR-MSG-D13.2-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.03
6.04.02.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D13.3-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.05
6.04.02.01
The magnet shall have a Dipole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.06
6.04.02.01
The magnet field shall have a vertical field direction.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.09
6.04.02.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.12
6.04.02.01
The physical magnet length shall be <2.73 (m).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.15
6.04.02.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.79(T.m) (See figure P-ESR-MSG-D13.15-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.18
6.04.02.01
The magnet-to-magnet variability shall be < 0.1%.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.19
6.04.02.01
The field shall be measured at 4 locations (see figure P-ESR-MSG-D13-19-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.20
6.04.02.01
The reference field for the different design energies shall be Measurement 1; Bref1=0.07 (T) at R1 Measurement 2; Bref2=0.13 (T) at R2 Measurement 3; Bref3=0.284 (T) at R2 Measurement 4; Bref4=0.284(T) at R=0
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21
6.04.02.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.1
6.04.02.01
*Region 1: b1 = 10000, Region 2: b1 = 10000, *Region 3: b1 = 10000,
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.2
6.04.02.01
*Region1: -4<b2<4, Region2: -4<b2<4, *Region3: -4<b2<4
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.3
6.04.02.01
*Region 1: -0.5<b3<0.6, Region 2: -0.5<b3<0.6, *Region 3: -0.5<b3<0.6,
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.4
6.04.02.01
*Region 1: -1<b4< 0.5, Region 2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.5
6.04.02.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.6
6.04.02.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.7
6.04.02.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.8
6.04.02.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.9
6.04.02.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.10
6.04.02.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.11
6.04.02.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.12
6.04.02.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.13
6.04.02.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.14
6.04.02.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.15
6.04.02.01
*Region 1: -0.5<b15 <0.5, Region2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.21.16
6.04.02.01
*Region 1: -0.5<b16 <0.5, Region2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D13.22
6.04.02.01
The magnet shall not be designed to limit CrossTalk requirements.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.23
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.24
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.25
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.26
6.04.02.01
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-ESR-MAG-D13.27
6.04.02.01
The magnet shall be designed to constrain the external fringe field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.28
6.04.02.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.29
6.04.02.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.31
6.04.02.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.46
6.04.02.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D13.47
6.04.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.01
6.04.02.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.02
6.04.02.01
The magnet shall be equipped with trim coils which are capable of trimming the field within +/- 2.8(%) of the Peak main bus field. (See figure P-ESR-MSG-D2.2-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.03
6.04.02.01
To operate at a fixed bus current for 5GeV,10GeV and 18GeV the magnet shall be designed to accommodate turns. (See figure P-ESR-MSG-D2.3-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.05
6.04.02.01
The magnet shall have a Dipole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.06
6.04.02.01
The magnet field shall have a vertical field direction.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.09
6.04.02.01
The magnet pole gap height and width shall be H=52 (mm), W=140(mm).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.10
6.04.02.01
The magnet good field aperture dAx required shall be 35.0345 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.12
6.04.02.01
The physical magnet length shall be <1.13 (m).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.15
6.04.02.01
The magnet shall be able to deliver an absolute nominal integrated dipole field ranging from Bmin=0(T.m) to Bmax=0.33(T.m). (See figure P-ESR-MSG-D2.15-1)
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.18
6.04.02.01
The magnet-to-magnet variability shall be < 0.1%.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.19
6.04.02.01
The field shall be measured at 4 locations (See figure P-ESR-MSG-D2.19-1) as follows Harmonic Measurements region 1; Rref1=13mm centered at (-14,0) mm, Harmonic Measurements region 2; Rref2=13mm centered at (0,0) mm, Harmonic Measurements region 3; Rref3=13mm centered at (14,0), Relative field Measurements region 4; Relative to the central field at B(0,0), sampled in an Annulus 25mm>dRvol3>31mm
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.20
6.04.02.01
The reference field for the different measurements shall be Measurement 1; Bref1=-0.375 (T) in Region1, Region2 and Region3 Measurement 2; Bref2=0.12 (T) in Region1, Region2 and Region3 Measurement 3; Bref2=0.23 (T) in Region1, Region2 and Region3 Measurement 3; Bref3=0.23 (T) in Region4
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21
6.04.02.01
The magnet bore field shall have a field homogeneity in region 4, of better than dB/B<10-3 with respect to the central field at R(0,0) and shall meet the following harmonic multipole content in regions 1, 2 and 3. (Note: The following calculated multipoles values are given for reference radius of 17mm and centered on axis at x=0, y=0. *The multipole values need to be scaled accordingly in regions 1 and 3 with appropriate off axis values.)
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.1
6.04.02.01
*Region1: b1 = 10000, Region2: b1 = 10000, *Region3: b1 = 10000
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.2
6.04.02.01
*Region 1: -6<b2<6, Region 2: -6<b2<6, *Region 3: -6<b2<6
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.3
6.04.02.01
*Region1: -0.5<b3<0.6, Region2: -0.5<b3<0.6, *Region3: -0.5<b3<0.6
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.4
6.04.02.01
*Region1: -1<b4< 0.5, Region2: -1<b4< 0.5, *Region 3: -1<b4< 0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.5
6.04.02.01
*Region 1: -0.5<b5 <0.5, Region 2: -0.5<b5 <0.5, *Region 3: -0.5<b5 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.6
6.04.02.01
*Region 1: -0.5<b6 <0.5, Region 2: -0.5<b6 <0.5, *Region 3: -0.5<b6 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.7
6.04.02.01
*Region 1: -0.5<b7 <0.5, Region 2: -0.5<b7 <0.5, *Region 3: -0.5<b7 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.8
6.04.02.01
*Region 1: -0.5<b8 <0.5, Region 2: -0.5<b8 <0.5, *Region 3: -0.5<b8 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.9
6.04.02.01
*Region 1: -0.5<b9 <0.5, Region 2: -0.5<b9 <0.5, *Region 3: -0.5<b9 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.10
6.04.02.01
*Region 1: -0.5<b10 <0.5, Region 2: -0.5<b10 <0.5, *Region 3: -0.5<b10 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.11
6.04.02.01
*Region 1: -0.5<b11 <0.5, Region 2: -0.5<b11 <0.5, *Region 3: -0.5<b11 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.12
6.04.02.01
*Region 1: -0.5<b12 <0.5, Region 2: -0.5<b12 <0.5, *Region 3: -0.5<b12 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.13
6.04.02.01
*Region 1: -0.5<b13 <0.5, Region 2: -0.5<b13 <0.5, *Region 3: -0.5<b13 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.14
6.04.02.01
*Region 1: -0.5<b14 <0.5, Region 2: -0.5<b14 <0.5, *Region 3: -0.5<b14 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.15
6.04.02.01
*Region 1: -0.5<b15 <0.5, Region 2: -0.5<b15 <0.5, *Region 3: -0.5<b15 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.21.16
6.04.02.01
*Region 1: -0.5<b16 <0.5, Region 2: -0.5<b16 <0.5, *Region 3: -0.5<b16 <0.5
02/13/2025
Approved
FALSE

P-ESR-MAG-D2.22
6.04.02.01
The magnet shall not be designed to limit CrossTalk requirements.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.27
6.04.02.01
The magnet shall be designed to constrain the external fringe field
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.28
6.04.02.01
The magnet fringe field shall not exceed 10 Gauss at a radial distance greater than 900mm from the magnet centerline
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.29
6.04.02.01
Magnetic field position and alignment within the magnet, the magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.31
6.04.02.01
Magnet installation tolerances, the magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.46
6.04.02.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-D2.47
6.04.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-PS-QLS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-HSR-MAG-D5I.03
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.04
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.05
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.03
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.04
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.05
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.03
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.04
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.05
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.03
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.04
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.05
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.03
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.04
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.05
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-Q1.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

F-IR.12
6.06.02
The electron and hadron IR spin manipulation components shall be designed to provide the spin orientation at the IP as specified in [5.8].
01/27/2025
In Process
FALSE

F-IR.13
6.06.02
The process of orientating the spin to longitudinal direction at the IP shall not affect the spin outside the IR
01/27/2025
In Process
FALSE

IR-CONT : Interaction Region Controls

IR-CONT-ALGNMNT : IR Controls Crab Alignment

IR-CONT-FEEDBACK : IR Controls Fast Orbit Feedback

IR-CONT-ORBIT : IR Controls Transverse IR Orbit Optimization

IR-CRYO

IR-CRYO-IR10

IR-CRYO-IR10-2KDIST

P-IR-CRYO-IR10-2KDIST.01
6.09.04
All distribution system helium valves operating sub-atmospherically shall have a test port with a VCR connection.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.02
6.09.04
All distribution system helium valves shall be bellows-sealed.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.03
6.09.04
The Cryodistribution System shall be designed such that the pressure drop of each circuit is no more than 5%.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.04
6.09.04
The design of the Cryodistribution System shall minimize thermal acoustic oscillations (TAOs) by orienting each dead leg of piping to promote establishment of a static thermal gradient.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.05
6.09.04
The Cryogenic Distribution System design shall minimize cavity vibrations.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.06
6.09.04
The Cryodistribution System design shall not condense moisture from the atmosphere in the tunnel where drainage to a safe location is not accessible.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.07
6.09.04
The design of the Cryodistribution System shall eliminate the possibility of vapor locks in piping distributing any 2-phase fluids.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.08
6.09.04
To decouple commissioning schedules, the Cryodistribution System design shall allow cooldown to nominal operating conditions regardless of the number of CMs attached.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.09
6.09.04
The Cryodistribution System shall support continuous 4.5K refrigeration of the entire group of nominally 2K loads during times of cold compressor maintenance.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.10
6.09.04
The cryodistribution system Shield Return line from the cryomodules to the satellite refrigerator shall maintain a temperature of 80K and a pressure of 1.8 bar.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.11
6.09.04
The cryodistribution system sub-atmospheric line from the cryomodules to the satellite refrigerator shall maintain a temperature of 4K and a pressure of 30 mbar.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.12
6.09.04
The cryodistribution system shall provide piping to run the following lines from the satellite refrigerator to the exsisting lines in the tunnel: H-line: 80 K, 15.9 bar U-line: 10 K, 1.3 bar
02/13/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.13
6.09.04
The new 2K cryodistribution H-line shall maintain a temperature of 80 K and a pressure of 15.7 bar when connecting to the existing tunnel H-line.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.14
6.09.04
The new 2K cryodistribution U-line shall maintain a temperature of 10 K and a pressure of 1.5 bar when connecting to the existing tunnel U-line.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.15
6.09.04
The design shall add no additional margin to the heat leak for the 2 K sub atmospheric return line.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.16
6.09.04
A recooler with an outlet temperature of 4.55 K is required on the S-line.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.17
6.09.04
The recooler baths shall be supplied by the S-Line which will supply helium at a maximum pressure and temperature of 3.5 bar and 6 K The recooler baths supplied by the S-Line shall have a maximum supply pressure and temperature of 3.5 bar and 6 K
02/13/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.18
6.09.04
The LHe supply line shall have a maximum velocity of TBD
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.19
6.09.04
The Cryodistribution System design shall allow CMs to be added and removed without compromising the Cryodistribution System insulating vacuum.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.20
6.09.04
Each segment of the insulating vacuum space shall have valves and ports as required for maintenance of the insulating vacuum.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.21
6.09.04
All valves and piping joints shall where possible shall be in accessible indoor locations for manual actuation, leak checking, and maintenance work. If the valves are to be sited in conditions other than this their location shall be approved by the EIC CRYO group.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.22
6.09.04
During a pressure relief event due to rupture of the internal process piping, the pressure at any point within the insulating vacuum space shall not exceed 15 psi.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.23
6.09.04
The design of the ambient-temperature flanged connections on any sub atmospheric process piping shall prevent any air ingress or contamination in the case of an O-ring failure.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.24
6.09.04
A guard vacuum is required for all subatmospheric relief valves and other applicable locations.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.25
6.09.04
The distribution shall have pressure and temperature sensors located as shown on P&ID _____
02/13/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.26
6.09.04
The distribution shall have a liquid level sensor on the recooler
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.27
6.09.04
The distribution system shall have a heater at the R-line interface to the SA-line for commissioning the satellite plants. The heater shall be 620 W.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.28
6.09.04
The recooler shall have a heater (2kW at IR02 and 1kW at IR06 and IR10).
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.29
6.09.04
The distribution system shall have an equal percentage control valve on the S-line and on/off valves for other distribution system circuits.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.30
6.09.04
Bayonet connections for the 5 interface lines (listed below): Bayonets/piping connection location tolerances - in general, U-tubes are 90% fabricated prior to determining final locations of CMs. Once locations are finalized, bayonet positions are measured, allowing final u-tube dimensions to fit the critical tolerances required for smooth insertion/extraction.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.31
6.09.04
The cryogenic system shall have the capacity to handle cooling requirements for both the low temperature thermal intercepts and high temperature thermal radiation shield
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.32
6.09.04
The cryomodules shall be cooled down and filled with LHe at the beginning of each run.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.33
6.09.04
The cryomodules shall be warmed up to ambient temperature (300K) at the end of each run.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.34
6.09.04
The cryomodules shall be cooled down and kept at their operating temperature for the duration of each run.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.35
6.09.04
All physical connections to cryomodules shall be made when the system is at room temperature.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.36
6.09.04
The cryomodule/cryodistribution system interface components shall be designed to accommodate a warmup to at least 300K at least one time per year
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.37
6.09.04
The cryodistribution system shall circulate warm clean gas to scrub/cleanout prior to cooldown
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.38
6.09.04
The cryomodules shall circulate warm clean gas to scrub/cleanout prior to cooldown
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.39
6.09.04
During warmup, the cryogenic 2.0 K circuits shall be pressurized to positive pressure, and the cold compressors will be bypassed.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.40
6.09.04
Heaters shall be used for cryomodule warm up.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.41
6.09.04
The cryo module design shall be such that it can be warmed up and removed during a run.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.42
6.09.04
No operation shall be carried out on a cryomodules in a single region at 2K if any other cryomodules are still at 4.5K.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.43
6.09.04
The cryomodules shall be capable of Independent warmup/cooldown.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.44
6.09.04
The Cryomodule shall include cross-over valves to provide a means controlling each Cryomodule individually.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.45
6.09.04
A guard vacuum shall be supplied to the cryomodules at the sub-atmospheric connection and for the reliefs.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.46
6.09.04
A control valve or orifice on the downstream/exhaust side shall be used to control the flow through the FPCs
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.47
6.09.04
Each cryomodule shall contain a 2K-4K Refrigeration recovery heat exchanger.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.48
6.09.04
Each Cryomodule shall include a control heater(s).
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.49
6.09.04
The maximum flow required for cryomodule cooldown at IR02 is
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.50
6.09.04
The maximum flow required for cryomodule cooldown at IR06 is
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.51
6.09.04
The maximum flow required for cryomodule cooldown at IR10 is
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.52
6.09.04
The total budget available for cooldown from the central plant via the S header shall be 20 g/s of 4.5K,3 bar He. The central plant supply line via the header shall have a flow rate of 20 g/s.
02/13/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.53
6.09.04
The 4.5K central plant supply line via the header shall have a flow rate of 20 g/s.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.54
6.09.04
The 4.5K central plant supply line via the header shall have a maximum supply pressure of 3 bar.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.55
6.09.04
The cooldown return flow from the satellite plants shall be processed to be sent back to central plant at 300 K.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.56
6.09.04
Assuming the 2K flow is loaded to minimum turndown:.e.g.. __ g/s
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.57
6.09.04
The Cryomodule 4.5K supply shall come directly from the S-supply from the central plant
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.58
6.09.04
The Cryomodules shall be designed to accommodate the maximum budgeted heat loads plus an additional margin of
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.59
6.09.04
Each cryomodule at IR10 (even those farthest from the satellite plant) shall have a maximum temperature of 2.0K.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.60
6.09.04
The temperature stability in the cryomodules circuits shall be
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.61
6.09.04
The temperature stability of the 2K bath shall be
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.62
6.09.04
The saturated vapor pressure in the 2K bath shall be
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.63
6.09.04
IR10: S-Line - Primary Supply: 4.9 K, 3.3 bar. SA-Line: Subatmospheric Return: 30 mbar, 3.7K CR-Line: Shield/FPC Return: 1.8 bar, 80K
02/13/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.64
6.09.04
The S-Line Primary Supply at IR10 shall have a maximum supply temperate of 4.9K.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.65
6.09.04
The S-Line Primary Supply at IR10 shall have a maximum supply pressure of 3.3 bar.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.66
6.09.04
The SA-Line Subatmospheric Return at IR10 shall have a maximum supply temperate of 3.7K.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.67
6.09.04
The SA-Line Subatmospheric Return at IR10 shall have a maximum supply pressure of 30 mbar.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.68
6.09.04
The CR-Line Shield and FPC Return at IR10 shall have a maximum supply temperate of 80K.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.69
6.09.04
The CR-Line Shield and FPC Return at IR10 shall have a maximum supply pressure of 1.8 bar.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.70
6.09.04
The S-line Header pressures shall be stable to within ± TBD.X mbar
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.71
6.09.04
The Shield return Header pressures shall be stable to within ± TBD.X mbar
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.72
6.09.04
The FPC/Cooldown Header pressures shall be stable to within ± TBD.X mbar
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.73
6.09.04
The Sub atmospheric line Header pressures shall be stable to within ± TBD.X mbar
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.74
6.09.04
S-line Header pressures shall be stable within ± xx.y mbar Shield return Header pressures shall be stable within ± xx.y mbar FPC/Cooldown Header pressures shall be stable within ± xx.y mbar Sub atmospheric line Header pressures shall be stable within ± xx.y mbar
02/13/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.75
6.09.04
The pressure in the FPC/Shield Return shall be greater than or equal to TBD
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.76
6.09.04
The Power Coupler Return shall be combined with the Shield Return and they will return to the satellite plant in one stream.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.77
6.09.04
The design shall be capable of "parking" all of the cryomodules at 4.5K
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.78
6.09.04
In 4.5K Mode the Cryomodule return is valved to connect to the 4.5K R-header of HSR distribution system to central plant
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.79
6.09.04
All reliefs in the tunnel shall be connected to a common relief header that will vent to an area outside the tunnel.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.80
6.09.04
The relief header in the tunnel shall be sized to be large enough to not create backpressure in the cryomodules.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.81
6.09.04
The cryomodule pressure protection shall include a 4 bara burst disk and 2bara reliefs.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.82
6.09.04
All Cryomodules shall be installed to within 1/4 inch of the "ideal" locations per appropriate CAD installation drawings.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.83
6.09.04
Instrumentation Interfaces: Wiring, Junction boxes/panels
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.84
6.09.04
Instrumentation and valves list: Pressure, Temperatures, Levels, switches, Valves, Vacuum, Heaters
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.85
6.09.04
Electrical interfaces: Size, number of pins, etc.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.86
6.09.04
The Instrumentation required to operate each SC magnet (coil voltage taps, current leads voltage taps, thermal sensors, Liquid sensors etc.) shall be furnished by the EIC SC magnets group in consultation with the EIC cryogenics team and the EIC controls team.
01/28/2025
In Process
FALSE

P-IR-CRYO-IR10-2KDIST.87
6.09.04
To minimize remanent fields, no magnetic components, such as flanges and bolts, shall be used in the design of the SC magnet cryogenic systems.
01/28/2025
In Process
FALSE

IR-CRYO-IR10-2KSAT

P-IR-CRYO-IR10-2KSAT.01
6.09.02
A standby cooling water tower pump shall be provided.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.02
6.09.02
The cooling water supply availability shall have an uptime of 100% per year.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.03
6.09.02
The cooling water cleanliness shall be capable of maintaining a piping longevity of 20 years.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.04
6.09.02
The cooling water piping material shall be chosen such that no corrosion occurs within 20 years of commissioning.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.05
6.09.02
The maximum differential cooling water pressure total in the building shall be 45 psi.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.06
6.09.02
Electricity availability shall be 99.997%.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.07
6.09.02
The voltage differential in the supply shall be within +/- 10% of the rated voltage.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.08
6.09.02
The power supply for all satellite plant refrigerator equipment shall be an independent reliable power source.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.09
6.09.02
The roof of the control room shall have a minimum floor loading of TBD lbs/ft2.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.10
6.09.02
The design of the building shall accommodate all the material handling accomodations for commissioning and operation as defined on drawing #SK-CRB-IR10 BLDG PLAN - 23OCT24 including, but not limited to, permanent cranes, access for portable cranes, aisle sizes.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.11
6.09.02
The equipment footprint for the building shall be in accordance with drawing #SK-CRB-IR10 BLDG PLAN - 23OCT24.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.12
6.09.02
The minimum concrete strength shall be 4000 psi.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.13
6.09.02
The Infrastructure building design shall include all vehicle access needed to accommodate the filling of gas and liquid storage tanks.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.14
6.09.02
All internal components of the coldbox shall be easily accessible via an internal ladder while working within the cold box.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.15
6.09.02
Access to the inside of the cold box shall be via a manway of at least 28 inches in diameter and be accessible from the ground.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.16
6.09.02
A flanged plate with a minimum diameter of 8 inches shall be provided at the top of the cold box for air ventilation while working within the cold box.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.17
6.09.02
The access platforms shall be placed on top of the cold box and shall be designed to carry a load of at least 150 lbs. per square foot.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.18
6.09.02
All vacuum pump ports shall be a minimum size of ISO 250.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.19
6.09.02
All vacuum valve ports of vessels with multi-layer insulation shall be properly screened to prevent inlet blockages.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.20
6.09.02
The cold box back-up vacuum valve connection port shall be at least 150 ISO.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.21
6.09.02
Should there be a failure of any component in the cold box, the cold box vacuum vessel shall be equipped with a relief device sized to handle 125% of the flow from the cold box high pressure supply at the maximum design capacity.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.22
6.09.02
The cold box shall have Dual carbon beds at 80 K.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.23
6.09.02
The 80K Dual carbon beds shall have a regeneration period of less than 2 days.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.24
6.09.02
The 80K Dual carbon beds shall reduce flow impurities in the system to less than 1 ppmV, given an inlet impurity level of 100 ppmv.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.25
6.09.02
The 80K Dual carbon beds shall have a minimum bed life of 1 month
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.26
6.09.02
The 80K Dual carbon beds pressure drop through the adsorber beds shall not exceed 0.5 atm
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.27
6.09.02
The final filtration stage shall have a residual contamination of oil of less than 1 ppb by volume
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.28
6.09.02
The exit dewpoint of the high pressure helium stream after the dual carbon beds shall be TBD K or better. 80 °C
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.29
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by ASME BPVC VIII as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.30
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by B31.3 Process Piping as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.31
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by 10 CFR 851 as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.32
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by 10 CFR 1926 as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.33
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by 10 CFR 1021 as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.34
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by NFPA as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.35
6.09.02
The satellite plant shall be designed to meet all applicable standards as defined by ASHRAE as directed by the EIC Code of Record and/or all applicable excluded items governed by the EIC Memorandum of Agreements (MOA).
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.36
6.09.02
The cold box expander inlet filters shall be capable of filtering particles of 10 microns or larger.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.37
6.09.02
The cold box expander bearing gas supply and gas brake circuit filters shall be capable of filtering particles of 10 microns or larger.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.38
6.09.02
The low pressure inlet of warm compressors shall have a 304SS temporary strainer with 300 mesh 300% O, 1/16" PERF and the screen must be easily removable for cleaning.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.39
6.09.02
All the cryogenic equipment shall be designed to handle no less than 100 thermal cycles.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.40
6.09.02
All process equipment joints and interfaces such as flanges, mechanical joints, and valve stem seals shall have a maximum allowable leakage rate of 1x10^-6 atm cc/s.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.41
6.09.02
All satellite refrigerator process piping shall have a maximum allowable leakage rate of 1x10^-9 atm cc/s.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.42
6.09.02
All distribution system process piping shall have a maximum allowable leakage rate of 1x10^-9 atm cc/s.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.43
6.09.02
All process equipment shall have a maximum allowable leakage rate of 1x10^-6 atm cc/s.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.44
6.09.02
The piping shall be designed so that pooling oil will flow downward toward compressors and away from the cold box at all times
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.45
6.09.02
The Satellite refrigerator design shall mitigate all instances of standing liquid within the system.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.46
6.09.02
All internal process piping shall be designed with operating and design temperatures in the range of 3.5 to 310 K
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.47
6.09.02
The turbo-expander shall have a performance history in helium service of at least 20000 hrs.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.48
6.09.02
All satellite refrigerator helium valves shall be bellows-sealed.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.49
6.09.02
All satellite refrigerator helium valves operating sub-atmospherically shall have a test port with a VCR connection.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.50
6.09.02
The Coldbox vacuum vessel relief device shall be sized to handle 125% of the flow from the high pressure supply at the maximum design capacity.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.51
6.09.02
All water-cooled equipment as defined by the EIC Cryogenics group shall not exceed a temperature of 305K.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.52
6.09.02
All utilities (instrument air, water, electricity, etc.) provided to the cryogenics satellite plant shall be in accordance with the parameters laid out in the latest revision of EIC Infrastructure Utilities Requirements Document, Doc. No. EIC-IFD-RSI-012.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.53
6.09.02
The cold box vacuum shall be able to be pumped down from atmospheric pressure to its operational pressure of 1e-5 Torr or better within 24 hrs.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.54
6.09.02
The cold box shall be designed to pumpdown from 4.5K to 2K.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.55
6.09.02
The cold box shall be designed to complete a half thermal cycle (warm up or cooldown) from 3.5K to 300K or vice versa within 12 hrs.
01/28/2025
Approved
FALSE

P-IR-CRYO-IR10-2KSAT.56
6.09.02
The cold compressors shall be capable of a minimum possible turndown mode of 20% below the nominal flowrate.
01/28/2025
Approved
FALSE

IR-ESR : Interaction Region ESR

IR-ESR-LATTICE : Interaction Region ESR Lattice

F-IR-ESR-LATTICE.1
6.06.02
The electron lattice elements shall have large enough apertures to accommodate a minimum 13.5σ spread in x (horizontal direction) and a 22 spread in y (vertical direction) with an RMS beam size based on the design emittances as specified in [5.8].
02/13/2025
In Process
FALSE

F-IR-ESR-LATTICE.2
6.06.02
The IR electron lattice design shall adjust the phase advance between the IP and the arc on each side to support the correction of chromatic effects.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.3
6.06.02
The IR electron lattice elements shall provide apertures in the near-IR quadrupoles large enough to transmit the synchrotron radiation created by magnets on the other side of the IP.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.5
6.06.02
The IR electron lattice design shall accommodate a luminosity monitor to detect hard γ-rays downstream of the IP with respect to the electrons (Rear Side).
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.6
6.06.02
The IR electron lattice shall incorporate a Compton polarimeter between the upstream spin rotator and the upstream crab cavity.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.7
6.06.02
The IR electron lattice shall provide space for detectors to tag scattered electrons on the downstream side of the IP (Rear Side).
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.8
6.06.02
The IR electron lattice shall incorporate a dipole just downstream of the IP to bend the beam away from the HSR line, for the purpose of luminosity monitoring and detection of off-energy electrons.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.9
6.06.02
The forward side ESR cavity shall not interfere with the ZDC or the HSR crab cavities.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.10
6.06.02
The detector background shall be kept below levels consistent with the detector requirements.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.11
6.06.02
The IR electron lattice shall accommodate the crossing angle required by the electron beam at the IP.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.12
6.06.02
The IR electron lattice upstream of the IP shall ensure that accelerator components do not interfere with other accelerator components.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.13
6.06.02
At the IP of the electron lattice the dispersion, its derivative and alpha shall all be 0 ,and the beta βx βy shall be chosen to deliver the colliding beam parameters set forth in [5.8]
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.14
6.06.02
The IR electron lattice design shall create a multiple of 180deg horizontal phase advance between the two crab cavities.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q50.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.12
6.04.03.01.01
The physical magnet length shall be <0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.13
6.04.03.01.01
The effective magnet length shall be 0.5 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.16
6.04.03.01.01
The magnet integrated grad field G shall be 9.4 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q50.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.15
6.06.02
It shall be possible to remove any horizontal/transverse coupling introduced due to the detector solenoid and ESR ring tilt in the IR electron lattice.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q60.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.12
6.04.03.01.01
The physical magnet length shall be <0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.13
6.04.03.01.01
The effective magnet length shall be 0.6 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.16
6.04.03.01.01
The magnet integrated grad field G shall be 11.0 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q60.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-MAG-Q80.01
6.04.03.01.01
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.04
6.04.03.01.01
The magnet shall require shunt resistors for beam-based alignment, 5A at 5 GeV.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.05
6.04.03.01.01
The magnet shall have a Quadrupole field.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.07
6.04.03.01.01
The magnet shall have a normal field rotation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.08
6.04.03.01.01
The pole tip radius of the magnet shall be 40 mm.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.12
6.04.03.01.01
The physical magnet length shall be <0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.13
6.04.03.01.01
The effective magnet length shall be 0.8 m.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.16
6.04.03.01.01
The magnet integrated grad field G shall be 15.1 T.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.19
6.04.03.01.01
The harmonic reference radius and current at 18 GeV shall be 25 (mm) and 412 (A).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.20
6.04.03.01.01
The Field at the reference radius and current at 18 GeV shall be 18.9 (T/m).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21
6.04.03.01.01
The magnet bore field shall require the following multipole content:
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.2
6.04.03.01.01
b2 = 10000 , a2 = N/A
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.3
6.04.03.01.01
b3 = HV +/- 2.2 , a3 = +/- 2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.4
6.04.03.01.01
b4 = HV +/- 2.4 , a4 = +/- 0.7
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.5
6.04.03.01.01
b5 = HV +/- 1.0 , a5 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.6
6.04.03.01.01
b6 = HV +/- 1.0 , a6 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.7
6.04.03.01.01
b7 = HV +/- 1.0 , a7 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.8
6.04.03.01.01
b8 = HV +/- 1.0 , a8 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.9
6.04.03.01.01
b9 = HV +/- 1.0 , a9 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.10
6.04.03.01.01
b10 = HV +/- 1.0 , a10 = +/- 0.5
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.11
6.04.03.01.01
b11 = HV +/- 1.0 , a11 = +/- 0.4
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.12
6.04.03.01.01
b12 = HV +/- 1.0 , a12 = +/- 0.3
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.13
6.04.03.01.01
b13 = HV +/- 1.0 , a13 = +/- 0.2
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.21.14
6.04.03.01.01
b14 = HV +/- 1.0 , a14 = +/- 0.15
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.27
6.04.03.01.01
The magnet shall be designed to specifically constrain the external fringe field to 10 Gauss at 40mm from the RCS beamline.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.29
6.04.03.01.01
The magnetic field, center and alignment, within the magnet must be known to within a translational value of +/-50 (um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.31
6.04.03.01.01
The magnet install center and install alignment must be within a translational value of +/-150(um) and a rotational alignment value of +/-0.5(mrad).
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.32
6.04.03.01.01
The magnet shall have a splitable pole to facilitate the vacuum beam pipe installation.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.46
6.04.03.01.01
The magnet design and verification process shall ensure the final magnet will meet the reliability needs of the EIC over it planned operational life of >20 Years.
01/27/2025
Approved
FALSE

P-ESR-MAG-Q80.47
6.04.03.01.01
The magnet shall be designed to operate reliably given the cumulative radiation dose of TBD Rads it will experience over the lifetime of the EIC of >20 Years.
01/27/2025
In Process
FALSE

P-ESR-PS-QLS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

F-IR-ESR-LATTICE.16
6.06.02
For spin rotation purposes the IR electron lattice shall use two solenoid modules (“long” and “short”) each consisting of two solenoids with a number of quadrupoles between them. They shall be capable of rotating the electron Spin to the longitudinal direction at the IP, for all beam energies within the required range as set forth in the Master Parameter table [5.8].
02/13/2025
In Process
FALSE

P-IR-INST-ESR_FEEDBACK.1
6.06.02.05
The requirements for electron transverse orbit feedback at the IP shall be TBD
01/27/2025
In Process
FALSE

P-IR-INST-ESR_FEEDBACK.2
6.06.02.05
The BPMs that shall provide the electron beam position data to the IR feedback system are TBD
01/27/2025
In Process
FALSE

P-IR-INST-ESR_FEEDBACK.3
6.06.02.05
The location and quantity of the corrector magnets for the IR transverse orbit feedback shall be TBD
01/27/2025
In Process
FALSE

P-IR-INST-ESR_FEEDBACK.5
6.06.02.05
The bandwidth of corrector system of magnets and their power supplies for the IR transverse orbit feedback shall be >30 Hz
01/27/2025
In Process
FALSE

P-IR-INST-ESR_FEEDBACK.4
6.06.02.05
The type of the corrector magnets for the IR transverse orbit feedback shall be (fast) air-core correctors
01/27/2025
In Process
FALSE

P-IR-INST-ESR_FEEDBACK.6
6.06.02.05
The electron beam position stability provided by the IR feedback system at the IP shall be TBD
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.17
6.06.02
The IR electron lattice design shall eliminate any coupling introduced by the spin rotator solenoids.
01/27/2025
In Process
FALSE

F-IR-ESR-LATTICE.18
6.06.02
The IR electron lattice design shall remove the dependence of spin on the horizontal amplitude of the particles.
01/27/2025
In Process
FALSE

P-ESR-PS-QLS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QLS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QLS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QLS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS1.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS1.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS1.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS2.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS2.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS2.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS3.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS3.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS3.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS4.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS4.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS4.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.1
6.04.04
The number of Independent functions on the magnets being powered shall be 1
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.2
6.04.04
The maximum magnet string resistance to be powered shall be TBD ohm
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.3
6.04.04
The maximum magnet string inductance to be powered shall be TBD H
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.4
6.04.04
The magnets being powered shall be saturated TBD Y/N
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.5
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.6
6.04.04
The voltage to ground of the magnet being powered shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.7
6.04.04
The nominal current of the magnets being powered shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.8
6.04.04
The minimum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.9
6.04.04
The maximum current the PS must operate at shall be TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.10
6.04.04
The PS current type shall be NC (DC or AC)
01/28/2025
Reviewed
FALSE

P-ESR-PS-QSS5.11
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.12
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.13
6.04.04
The full power bandwidth required shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.14
6.04.04
The ppm of full scale current (peak to peak) shall be TBD %
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.15
6.04.04
The time period for specified stability shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.16
6.04.04
The short term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.17
6.04.04
The long term stability shall be TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.18
6.04.04
The current setpoint resolution (min size in bits) shall be TBD bits
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.19
6.04.04
The synchronization required between PS's shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.20
6.04.04
The synchronization timing of synchronization shall be TBD s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.21
6.04.04
The max allowable current ripple (peak to peak) TBD A
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.22
6.04.04
The max current ripple frequency range (Hz) TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.23
6.04.04
WRT the ripple frequency the following resonant frequencies shall be avoided TBD Hz
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.24
6.04.04
The max voltage ripple (peak to peak) shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.25
6.04.04
An NMR shall be required to measure the field TBD A/s
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.26
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.27
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.28
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.29
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.30
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.31
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.32
6.04.04
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-ESR-PS-QSS5.33
6.04.04
The current required to be shunted through the magnet shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.35
6.04.04
The terminal voltage shall be TBD V
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.34
6.04.04
The magnet turns ratio shall be TBD
01/28/2025
In Process
FALSE

P-ESR-PS-QSS5.36
6.04.04
The design shall have thermal switches TBD
01/28/2025
In Process
FALSE

F-IR-ESR-LATTICE.29
6.06.02
The IR electron lattice design shall be able to zero the Horizontal dispersion ηx = 0 in the long spin rotator solenoid module at 18 GeV.
01/27/2025
In Process
FALSE

IR-ESR-LATTICE EXTERNALS
Requirements who's parents are in other sub-systems.

F-IR-ESR-LATTICE.4
6.06.02
The IR electron lattice machine elements shall be designed to accommodate a beam divergence of 220µrad vertically and horizontally.
02/13/2025
In Process
FALSE

IR-ESR-MAG

IR-ESR-MAG-LSR

IR-ESR-MAG-SSR

IR-HSR : Interaction Region HSR

IR-HSR-LATTICE : Interaction Region HSR Lattice

F-IR-HSR-LATTICE.2
6.06.02
The hadron beamline lattice elements through the IR shall have a large enough aperture throughout to accommodate a minimum of 10σ spread in x and y of the incoming hadron beam at all energies without obstruction for all energies set forth in [5.8].
01/27/2025
In Process
FALSE

P-HSR-MAG-D5I.03
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.04
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.05
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.03
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.04
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.05
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.03
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.04
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.05
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.03
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.04
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.05
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.03
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.04
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.05
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-Q1.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

F-IR-HSR-LATTICE.3
6.06.02
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.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.4
6.06.02
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.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.5
6.06.02
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.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.6
6.06.02
The first magnet on the forward side of the detector in the IP hadron lattice shall be designed to accommodate all necessary detector components to reconstruct tracks up to 20 mrad off the hadron beam axis.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.7
6.06.02
The first magnet on the forward side of the detector in the IP hadron lattice shall be a dipole magnet that is sufficiently strong to act as a spectrometer for detecting interaction products from the hadron beams foreseen in [5.8].
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.8
6.06.02
The forward side HSR shall have any magnets which interfere with the ZDC or the HSR crab cavities.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.9
6.06.02
The IR hadron lattice design shall accommodate the crossing angle required by the hadron beam at the IP to generate a shallow crossing angle for the beams.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.10
6.06.02
The downstream near-IR magnets of the IR hadron lattice design shall be designed to bend the beam away from the electron line.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.11
6.06.02
The IR hadron lattice design shall provide the capability to correct the HSR orbit vertically and horizontally to remove the effect of unwanted kicks imparted to the beam by entering the Detector solenoid off axis.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.12
6.06.02
The lattice design must ensure that the dipoles in the downstream near IR region of the IR hadron lattice design shall be such that the beam is restored to the correct trajectory (common to all configurations) as it exits the last near-IR magnet.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.13
6.06.02
The design of the IR hadron lattice elements shall prevent any stray field from the hadron magnets affecting the electron beam.
01/27/2025
In Process
FALSE

F-IR-HSR-LATTICE.14
6.06.02
At the IP of the hadron lattice the dispersion, its derivative and alpha shall all be 0 ,and the beta βx βy shall be chosen to deliver the colliding beam parameters set forth in [5.8]
01/27/2025
In Process
FALSE

P-HSR-MAG-D5I.03
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.04
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.05
6.05.02.01
The magnet is a Dipole(D5I) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5I.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5I.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.03
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.04
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.05
6.05.02.01
The magnet is a Dipole(D5O) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D5O.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D5O.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.03
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.04
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.05
6.05.02.01
The magnet is a Dipole(D6) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D6.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.03
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.04
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.05
6.05.02.01
The magnet is a Dipole(D8) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D8.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.03
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the multipole homogeneity measurements and transfer function are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.04
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the cross talk calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.05
6.05.02.01
The magnet is a Dipole(D9) RHIC Magnet, the fringe field calculations are maintained in the BNL magnet repository.
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/19/2025
In Process
FALSE

P-HSR-MAG-D9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/19/2025
Approved
FALSE

P-HSR-MAG-D9.10
6.05.02.01
The magnet shall be designed to operate reliably given the cumulative radiation dose it will experience over the lifetime of the EIC of >20 Years.
02/19/2025
Approved
FALSE

P-HSR-MAG-Q1.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q1.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q2.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q3.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q4.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q5.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q6.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q7.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q8.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.03
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its operational harmonic multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.04
6.05.02.01
The magnet shall be measured using the multipole homogeneity measurement methodology defined to satisfy its crosstalk multipole content constraints.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.05
6.05.02.01
The magnet shall not be designed to constrain the external fringe field.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.06
6.05.02.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.07
6.05.02.01
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.09
6.05.02.01
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 quenches and 20000 power cycles.
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.08
6.05.02.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/18/2025
Not Applicable
FALSE

P-HSR-MAG-Q9.10
6.05.02.01
The magnet shall be designed with components capable to withstand a radiation dose of TBD MGy, or be approved by EIC for use in a specific location as shown in the “BNL Materials” List Doc. No. TBD.
02/18/2025
Not Applicable
FALSE

F-IR-HSR-LATTICE.15
6.06.02
The Phase advance between the crab cavities shall be as close as feasible to 180 degrees to limit dynamic aperture issues.
01/27/2025
In Process
FALSE

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

F-IR-HSR-LATTICE.16
6.06.02
The IR hadron lattice design shall include a helical dipole (“snake”) on one side of the IP Parallel to the RHIC 7DUMMY in RHIC sector 11.
02/13/2025
In Process
FALSE

IR-INST : Interaction Region Instrumentation

F-IR-INST.1
6.06.02
The IR shall have the instrumentation needed to measure the beam position of both electron and hadron beams.
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.1
6.06.02.05
The total number of ESR BPM pickups in the IR shall be 24
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.2
6.06.02.05
For the 2nC pilot bunch, BPM pickups shall be designed to provide the required measurement resolution over the range of H=+/-50, V=+/-10 um
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.3
6.06.02.05
For the design bunch, BPM pickups shall be designed to provide the required measurement resolution over the range of H=+/-20, V=+/-5 um
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.4
6.06.02.05
The BPM pickup shall be designed so to ensure the maximim temperatures of the components (due to heating by the beam) are acceptable for reliability and operations
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.5
6.06.02.05
The BPM pickups shall be designed to be baked to 200 C for large number of thermal cycles (list locations where applicable)
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.6
6.06.02.05
The BPM pickup installation misalignment tolerance shall be for warm BPM=50 & cold BPM=500 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.7
6.06.02.05
The BPM pickup misalignement variance tolerance (upper limit) due to thermal cycling of the ESR BPMs in the IR shall be 20 um
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.10
6.06.02.05
The ESR shall have slow global orbit correction BPM pickups at the specified locations within +162m to -162m of IP6 ESR_IR_BPM_corrector-10-20-2023.docx
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.11
6.06.02.05
The BPM electronics shall have a turn-by-turn capability Y
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.12
6.06.02.05
For the 2 nC pilot bunches, single turn measurement resolution shall be Hmax=Vmax<100 Hdrift=Vdrift<50 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.13
6.06.02.05
For the 2 nC pilot bunches, 1,000 turns average measurement resolution shall be Hmax=Vmax<30 Hdrift=Vdrift<30 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.14
6.06.02.05
For stored beam, turn-by-turn low charge, 2 nC bunches, measurement resolution shall be Hmax=Vmax<30 Hdrift=Vdrift<30 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.15
6.06.02.05
For stored beam, turn-by-turn high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<10 Hdrift=Vdrift<10 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.16
6.06.02.05
For stored beam, 1,000 turns average, high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<5 Hdrift=Vdrift<5 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.17
6.06.02.05
For stored beam, 1 second average, high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<1 Hdrift=Vdrift<1 um
02/13/2025
In Process
FALSE

P-IR-INST-HSR_BPM.1
6.06.02.05
Existing RHIC stripline BPMs that are reused in the IR shall be shielded (sleeved) to avoid overheating the BPMs and their cables in the RHIC cryostats
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.2
6.06.02.05
New hadron cryobutton BPMs shall be placed in available locations as close as possible to the existing RHIC stripline BPMs inside RHIC cryostats which are being reused
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.3
6.06.02.05
New hadron BPMs shall be placed in new, additional locations as required HSR_IR_BPM_cor_location-10-20-2023.xlsx
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.4
6.06.02.05
New hadron cryobutton BPMs shall be able to operate a with minimal load on the cryogenic system at temperatures of 2 K
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.5
6.06.02.05
The new and existing BPMs shall compatibly interface with the new coated sleeves that are being added to the HSR cold vacuum pipe.
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.6
6.06.02.05
Each new cryobutton BPM shall have the same measurement plane(s) as the closest existing RHIC stripline BPM or be upgraded to dual plane
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.7
6.06.02.05
The BPM mechanical centers shall be aligned with nearby quadrupole magnetic center within at least 0.15 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.8
6.06.02.05
The BPMs at the arc focusing quads shall be capable of providing a reliable measurement of the horizontal orbit position of +/-21 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.9
6.06.02.05
The BPMs at the arc defocusing quads shall be capable of providing a reliable measurement of the horizontal orbit position of +/-10 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.10
6.06.02.05
The BPMs at the arc focusing quads for measurements of the orbit position at a bunch charge of 5nC. [5.9] shall be capable to provide reliable measurements in a range of +/ 21 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.11
6.06.02.05
The BPMs at the arc defocusing quads shall be capable to provide reliable measurement of the orbit position in the range +/ 10 mm at a bunch charge of 5nC. [5.9] 10 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.12
6.06.02.05
A number of BPMs shall sighted on either side of IP6 where there is a different (nontraditional) beam pipe aperture. These BPM will not be the standard HSR cryoBPM. The number of non standard BPMs in this region shall be TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.13
6.06.02.05
The nonstandard HSR BPM's in this region shall be compatible with the non standard beam pipe aperture.
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.14
6.06.02.05
The locations of the non standard HSR BPM's in the nonstandard beam pipe aperture shall be. TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.15
6.06.02.05
The non standard HSR BPM's shall have a measurement resolution of TBD units
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.16
6.06.02.05
The expected radial offset at each of the non standard HSR BPMs in the IR, for each of the various HSR running modes shall be 0 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.17
6.06.02.05
There shall be warm HSR button BPM pickups at the following locations TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.18
6.06.02.05
The warm HSR button BPM pickups shall have a measurement resolution of TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.19
6.06.02.05
The warm HSR button BPM pickups at the following locations Dimensions and performance requirements are TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.20
6.06.02.05
A hadron BPM shall be installed between B0pF and B0ApF with the dedicated purpose of measuring the hadron crabbing angle of 12.5 mrad
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.21
6.06.02.05
The BPM electronics for the pickups located in the HSR arcs (defined in this case as from Q5 to Q5) need to be able to provide measurements during the store with an considerably shifted beam radial orbit. The BPMs here shall be able to measure a maximum radial orbit shift range of +\- 21 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.22
6.06.02.05
There shall be no requirement on BPMs to perform individual measurements for each bunch, when more than one bunch is present. One position measurement per turn which includes all bunches combined will be the narrowest (turn-by-turn) mode of sampling.
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.23
6.06.02.05
The BPM RMS resolution for measuring one turn orbit for a 5 nC bunch at injection parameters shall not be larger than 2 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.24
6.06.02.05
TheBPM RMS resolution for a 44 nC bunch at injection parameters for measuring one turn orbit shall not be larger than 0.2 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.25
6.06.02.05
The BPM system shall be capable of delivering an array of consecutive single turn position measurements at a rate of 1 array per second with 1024 turns
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.26
6.06.02.05
The BPM system shall be capable of delivering average orbit measurements at a continuous rate of 1 Hz
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.27
6.06.02.05
The RMS resolution, averaged over a 1 second period, for a 5 nC bunch at injection parameters for measuring the average orbit shall not be larger than 0.2 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.28
6.06.02.05
The RMS resolution , averaged over a 1 second period, for a 44 nC bunch at acceleration ramp parameters for measuring the average orbit shall not be larger than 20 um
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.29
6.06.02.05
The resolution, averaged over a 1 second period, at highest average current parameters for measuring the average orbit shall not be larger than 20 um
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.31
6.06.02.05
The BPM system shall be able to provide average orbit measurements to an orbit feedback system having a bandwidth of at least 1 Hz
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.30
6.06.02.05
The BPM system shall require a subset of BPMs that operate the fast orbit feedback having a bandwidth of at least 1 kHz
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.32
6.06.02.05
The electronics associated with the hadron BPM pickup installed between B0pF and B0ApF, used for measuring the hadron crabbing angle, shall have the necessary bandwidth and characteristics to measure a crabbing angle of 12.5 mrad
01/27/2025
In Process
FALSE

F-IR-INST.2
6.06.02
The IR shall have the instrumentation needed to measure the beam losses at critical locations.
01/27/2025
In Process
FALSE

P-IR-INST-ESR_LM.1
6.06.02.05
The Electron beam losses shall be measured at the following locations in the IR TBD
01/27/2025
In Process
FALSE

P-IR-INST-ESR_LM.2
6.06.02.05
Beam losses at the location of primary collimators shall be measurable bunch-by-bunch
01/27/2025
In Process
FALSE

P-IR-INST-ESR_LM.3
6.06.02.05
The sensitivity of the BLM detectors shall be 100000 e
01/27/2025
In Process
FALSE

P-IR-INST-ESR_LM.4
6.06.02.05
The response time from loss detection to abort shall be .01/20 ms
01/27/2025
In Process
FALSE

P-IR-INST-HSR_LM.1
6.06.02.05
Hadron beam losses shall be measured at the following locations in the IR TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_LM.2
6.06.02.05
Beam losses at the location of primary collimators shall be measurable bunch-by-bunch
01/27/2025
In Process
FALSE

P-IR-INST-HSR_LM.4
6.06.02.05
The sensitivity of the BLM detectors shall be 0.1 rad
01/27/2025
In Process
FALSE

P-IR-INST-HSR_LM.3
6.06.02.05
The type of hadron BLM detectors shall be ion chambers (RHIC style)
01/27/2025
In Process
FALSE

P-IR-INST-HSR_LM.5
6.06.02.05
The response time from loss detection to abort shall be .01/20 ms
01/27/2025
In Process
FALSE

F-IR-INST.3
6.06.02
The IR shall have the instrumentation needed to measure the hadron bunch crabbing angle between the hadron crab cavities.
01/27/2025
In Process
FALSE

F-IR-INST.4
6.06.02
The electron bunch crabbing angle will be measured at a location outside of the IR using a special operating mode due to IR space constraints.
01/27/2025
In Process
FALSE

IR-INST-ESR_BPM : ESR BPM Pickups in the IR

IR-INST-ESR_BPM EXTERNALS
Requirements who's parents are in other sub-systems.

P-IR-INST-ESR_BPM.1
6.06.02.05
The total number of ESR BPM pickups in the IR shall be 24
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.2
6.06.02.05
For the 2nC pilot bunch, BPM pickups shall be designed to provide the required measurement resolution over the range of H=+/-50, V=+/-10 um
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.3
6.06.02.05
For the design bunch, BPM pickups shall be designed to provide the required measurement resolution over the range of H=+/-20, V=+/-5 um
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.4
6.06.02.05
The BPM pickup shall be designed so to ensure the maximim temperatures of the components (due to heating by the beam) are acceptable for reliability and operations
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.5
6.06.02.05
The BPM pickups shall be designed to be baked to 200 C for large number of thermal cycles (list locations where applicable)
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.6
6.06.02.05
The BPM pickup installation misalignment tolerance shall be for warm BPM=50 & cold BPM=500 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.7
6.06.02.05
The BPM pickup misalignement variance tolerance (upper limit) due to thermal cycling of the ESR BPMs in the IR shall be 20 um
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.10
6.06.02.05
The ESR shall have slow global orbit correction BPM pickups at the specified locations within +162m to -162m of IP6 ESR_IR_BPM_corrector-10-20-2023.docx
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.11
6.06.02.05
The BPM electronics shall have a turn-by-turn capability Y
01/27/2025
In Process
FALSE

P-IR-INST-ESR_BPM.12
6.06.02.05
For the 2 nC pilot bunches, single turn measurement resolution shall be Hmax=Vmax<100 Hdrift=Vdrift<50 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.13
6.06.02.05
For the 2 nC pilot bunches, 1,000 turns average measurement resolution shall be Hmax=Vmax<30 Hdrift=Vdrift<30 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.14
6.06.02.05
For stored beam, turn-by-turn low charge, 2 nC bunches, measurement resolution shall be Hmax=Vmax<30 Hdrift=Vdrift<30 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.15
6.06.02.05
For stored beam, turn-by-turn high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<10 Hdrift=Vdrift<10 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.16
6.06.02.05
For stored beam, 1,000 turns average, high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<5 Hdrift=Vdrift<5 um
02/13/2025
In Process
FALSE

P-IR-INST-ESR_BPM.17
6.06.02.05
For stored beam, 1 second average, high charge, 7-28 nC bunch range, measurement resolution shall be Hmax=Vmax<1 Hdrift=Vdrift<1 um
02/13/2025
In Process
FALSE

IR-INST-ESR_FEEDBACK : ESR Transverse Orbit Feedback near the IR

IR-INST-ESR_LM : ESR Beam Loss Monitors in the IR

IR-INST-HSR_BPM : HSR BPM Pickups in the IR

IR-INST-HSR_BPM EXTERNALS
Requirements who's parents are in other sub-systems.

P-IR-INST-HSR_BPM.1
6.06.02.05
Existing RHIC stripline BPMs that are reused in the IR shall be shielded (sleeved) to avoid overheating the BPMs and their cables in the RHIC cryostats
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.2
6.06.02.05
New hadron cryobutton BPMs shall be placed in available locations as close as possible to the existing RHIC stripline BPMs inside RHIC cryostats which are being reused
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.3
6.06.02.05
New hadron BPMs shall be placed in new, additional locations as required HSR_IR_BPM_cor_location-10-20-2023.xlsx
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.4
6.06.02.05
New hadron cryobutton BPMs shall be able to operate a with minimal load on the cryogenic system at temperatures of 2 K
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.5
6.06.02.05
The new and existing BPMs shall compatibly interface with the new coated sleeves that are being added to the HSR cold vacuum pipe.
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.6
6.06.02.05
Each new cryobutton BPM shall have the same measurement plane(s) as the closest existing RHIC stripline BPM or be upgraded to dual plane
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.7
6.06.02.05
The BPM mechanical centers shall be aligned with nearby quadrupole magnetic center within at least 0.15 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.8
6.06.02.05
The BPMs at the arc focusing quads shall be capable of providing a reliable measurement of the horizontal orbit position of +/-21 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.9
6.06.02.05
The BPMs at the arc defocusing quads shall be capable of providing a reliable measurement of the horizontal orbit position of +/-10 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.10
6.06.02.05
The BPMs at the arc focusing quads for measurements of the orbit position at a bunch charge of 5nC. [5.9] shall be capable to provide reliable measurements in a range of +/ 21 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.11
6.06.02.05
The BPMs at the arc defocusing quads shall be capable to provide reliable measurement of the orbit position in the range +/ 10 mm at a bunch charge of 5nC. [5.9] 10 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.12
6.06.02.05
A number of BPMs shall sighted on either side of IP6 where there is a different (nontraditional) beam pipe aperture. These BPM will not be the standard HSR cryoBPM. The number of non standard BPMs in this region shall be TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.13
6.06.02.05
The nonstandard HSR BPM's in this region shall be compatible with the non standard beam pipe aperture.
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.14
6.06.02.05
The locations of the non standard HSR BPM's in the nonstandard beam pipe aperture shall be. TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.15
6.06.02.05
The non standard HSR BPM's shall have a measurement resolution of TBD units
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.16
6.06.02.05
The expected radial offset at each of the non standard HSR BPMs in the IR, for each of the various HSR running modes shall be 0 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.17
6.06.02.05
There shall be warm HSR button BPM pickups at the following locations TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.18
6.06.02.05
The warm HSR button BPM pickups shall have a measurement resolution of TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.19
6.06.02.05
The warm HSR button BPM pickups at the following locations Dimensions and performance requirements are TBD
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.20
6.06.02.05
A hadron BPM shall be installed between B0pF and B0ApF with the dedicated purpose of measuring the hadron crabbing angle of 12.5 mrad
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.21
6.06.02.05
The BPM electronics for the pickups located in the HSR arcs (defined in this case as from Q5 to Q5) need to be able to provide measurements during the store with an considerably shifted beam radial orbit. The BPMs here shall be able to measure a maximum radial orbit shift range of +\- 21 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.22
6.06.02.05
There shall be no requirement on BPMs to perform individual measurements for each bunch, when more than one bunch is present. One position measurement per turn which includes all bunches combined will be the narrowest (turn-by-turn) mode of sampling.
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.23
6.06.02.05
The BPM RMS resolution for measuring one turn orbit for a 5 nC bunch at injection parameters shall not be larger than 2 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.24
6.06.02.05
TheBPM RMS resolution for a 44 nC bunch at injection parameters for measuring one turn orbit shall not be larger than 0.2 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.25
6.06.02.05
The BPM system shall be capable of delivering an array of consecutive single turn position measurements at a rate of 1 array per second with 1024 turns
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.26
6.06.02.05
The BPM system shall be capable of delivering average orbit measurements at a continuous rate of 1 Hz
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.27
6.06.02.05
The RMS resolution, averaged over a 1 second period, for a 5 nC bunch at injection parameters for measuring the average orbit shall not be larger than 0.2 mm
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.28
6.06.02.05
The RMS resolution , averaged over a 1 second period, for a 44 nC bunch at acceleration ramp parameters for measuring the average orbit shall not be larger than 20 um
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.29
6.06.02.05
The resolution, averaged over a 1 second period, at highest average current parameters for measuring the average orbit shall not be larger than 20 um
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.30
6.06.02.05
The BPM system shall require a subset of BPMs that operate the fast orbit feedback having a bandwidth of at least 1 kHz
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.31
6.06.02.05
The BPM system shall be able to provide average orbit measurements to an orbit feedback system having a bandwidth of at least 1 Hz
01/27/2025
In Process
FALSE

P-IR-INST-HSR_BPM.32
6.06.02.05
The electronics associated with the hadron BPM pickup installed between B0pF and B0ApF, used for measuring the hadron crabbing angle, shall have the necessary bandwidth and characteristics to measure a crabbing angle of 12.5 mrad
01/27/2025
In Process
FALSE

IR-INST-HSR_FEEDBACK : HSR Transverse Orbit Feedback near the IR

IR-INST-HSR_LM : HSR Beam Loss Monitors in the IR

IR-MAG : IR Magnet

IR-MAG-ESR : Interaction Region/Electron Storage Ring Magnets

IR-MAG-ESR-B2AER : IR Magnet B2AER

P-IR-MAG-ESR-B2AER.1.1
6.06.02.01.01
The magnet shall have a single function dipole with a vertical field direction along the beam axis.
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-B2AER.1.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.1.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.1.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.1.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall less than or equal to 5.5 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-B2AER.1.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.1.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 90.45\90.45 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.1.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, will be replaced by a warm magnet details TBD
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.2.1
6.06.02.01.01
The maximum integrated field required is 0.172000000611804 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 0.2 (Tm)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.2.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.2.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.2.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.2.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.2.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 30(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@5GeV)=TBD(T) B(@10GeV)=TBD(T) B(@18GeV)=TBD(T) .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 90.45 mm to 90.45mm. Rref=29.8485 Assumes 1/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.1
6.06.02.01.01
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.2
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.4
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.4.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.4.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2AER.5
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.5.1
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.1
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.3
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.4
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.5
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.6
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.7
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.6.8
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.7
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.7.1
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.7.2
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.7.3
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.8
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.8.1
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.8.2
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.8.3
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.8.4
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.9
6.06.02.01.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2AER.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-ESR-B2BER : IR Magnet B2BER

P-IR-MAG-ESR-B2BER.1.1
6.06.02.01.01
The magnet shall have a single function dipole with a vertical field direction along the beam axis.
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-B2BER.1.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall less than or equal to 5.5 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-B2BER.1.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.1.11.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.2.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.2.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.2.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.2.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.2.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.2.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 73(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@5GeV)=TBD(T) B(@10GeV)=TBD(T) B(@18GeV)=TBD(T) .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 111.45 mm to 111.45mm. Rref=73.557 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.1
6.06.02.01.01
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.2
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.3
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.4
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.5
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.6
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.4
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-B2BER.4.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.4.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.5.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.6.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.7.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.7.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.7.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.8.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.8.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.8.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.8.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-B2BER.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

IR-MAG-ESR-DETSOL : ESR Detector Selinoid

P-IR-MAG-ESR-DETSOL.1.1
6.06.02.02
The magnet shall have a single function Solenoid with a Solenoidal field direction along the beam axis
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-DETSOL.1.2
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.1.3
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.1.4
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.1.5
6.06.02.02
The magnet SHALL be designed to be cooled and sustain operations at nominal operating conditions of superfluid helium (HeII) bath at 1.3 bar and 1.9 K.
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-DETSOL.1.6
6.06.02.02
The physical length of the magnet cold mass insert shall less than or equal to 2.75 (m) .
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.1.7
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.1.8
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.1.9
6.06.02.02
The inner beam tube bore radius when warm, shall be greater than or equal to 50\50 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.1.10
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.1.11
6.06.02.02
The magnet shall be designed to fit within the following constraints, The magnet shall be designed to fit within the following constraints, The entire cryostat, any ancillary equipment and support structure must fit within the tunnel and not impede any other EIC components or block egress.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.1.11.1
6.06.02.02
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=na Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.2.1
6.06.02.02
The maximum integrated field required is 46.7 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 51.4 (Tm)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.2.2
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.2.3
6.06.02.02
The magnet shall have a peak ramp rate of TBD A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.2.4
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.2.5
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.2.6
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.2.7
6.06.02.02
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=na
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.3.1
6.06.02.02
The harmonic reference radius Rr shall be The field shall be measured within a cylindrical volume having a reference radius of Rr of 33(mm), a length of TBD (m) and centered on the magnet center. .
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.3.2
6.06.02.02
The field at the reference radius Bref shall be The reference field Bref shall be measured at the Nominal magnet field. .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.3.3
6.06.02.02
The magnet bore field shall have the following multipole content: Aperture radius from 50 mm to 50mm. Rref=33 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.3.3.1
6.06.02.02
The magnet field variability |dB|/|B| within the measured volume shall not exceed 10 (x104) (10^-4)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.3.3.2
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.3
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.4
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.5
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.6
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.7
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.8
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.9
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.10
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.11
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.12
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.13
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.14
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.15
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.3.3.16
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4
6.06.02.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.4.1
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.2
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.1
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.2
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.3
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.4
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.5
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.6
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.7
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.8
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.9
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.10
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.11
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.12
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.13
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.14
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.15
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.4.3.16
6.06.02.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-DETSOL.5
6.06.02.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.5.1
6.06.02.02
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6
6.06.02.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.1
6.06.02.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.2
6.06.02.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.3
6.06.02.02
The magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.4
6.06.02.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.5
6.06.02.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.6
6.06.02.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.7
6.06.02.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.6.8
6.06.02.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.7
6.06.02.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.7.1
6.06.02.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.7.2
6.06.02.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.7.3
6.06.02.02
The magnet shall not quench when ramping down within a time interval of TBD(s) from full current.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.8
6.06.02.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.8.1
6.06.02.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.8.2
6.06.02.02
The maximum operating current of the magnet shall be 13.5kA.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.8.3
6.06.02.02
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: 20*2 thermal cycles, TBD quenches, and 20000=200(operational days)*20(yrs)*5(power cycles per day) power cycles
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.8.4
6.06.02.02
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.9
6.06.02.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-DETSOL.10
6.06.02.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-ESR-LSR : IR Magnet LONG_S

P-IR-MAG-ESR-LSR.01.01
6.06.02.02
The magnet shall be a single function solenoid with the solenoid field direction aligned along the beam axis.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.02
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.01.03
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.01.04
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.01.05
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.01.06
6.06.02.02
The physical length of the magnet cryostat shall be less than or equal to 6.2 (m).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.07
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.01.08
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.01.09
6.06.02.02
The magnet inner beam stay clear radius shall be greater than or equal to TBD (mm).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.10
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.01.11.00
6.06.02.02
The magnet shall be designed to fit within the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.01
6.06.02.02
The magnet cryostat shall be designed to fit within a cylindrical volume having an outside diameter less than 1.2 (m) and length less than 6.2 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.02.00
6.06.02.02
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat with can locate the field within the following tolerance limits:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.02.01
6.06.02.02
The magnetic field axis displacement tolerances: +/-TBD in X +/-TBD in Y Not Applicable in Z
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.01.11.02.02
6.06.02.02
The magnetic field rotational alignment tolerances: +/-TBD around x +/-TBD around y Rotational about Z is not applicable
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.02.01
6.06.02.02
The magnets maximum integrated field required is 46.70 (Tm), the magnet design shall include an additional 2% tuning margin giving a design field of (47.63) (Tm).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.02.02
6.06.02.02
The magnet needs to have a switchable polarity allowing it to deliver a solenoid field in either direction.
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.02.03
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.02.04
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.02.05
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.02.06
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.02.07
6.06.02.02
The magnet needs to have a switchable polarity allowing it to deliver a solenoid field in either direction.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.02.07.01.00
6.06.02.02
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.02.07.01.01
6.06.02.02
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position +/-TBD in X +/-TBD in Y Not Applicable in Z
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.02.07.01.02
6.06.02.02
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis +/-TBD around X +/-TBD around Y Rotational about Z is not applicable
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.03.00
6.06.02.02
The magnet field homogenity shall be measured within the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.03.01
6.06.02.02
The integral field shall be measured within a cylindrical volume centered on the magnet axis having a radius of Rr of 33(mm), a length of TBD(m).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.03.02
6.06.02.02
The field (Bref) shall be measured at the magnets nominal field value.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.03.03
6.06.02.02
The magnet field variability |dB|/|B| within the measured volume shall not exceed TBD%
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.03.03.01
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.02
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.03
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.04
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.05
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.06
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.07
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.08
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.09
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.10
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.11
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.12
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.13
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.14
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.15
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.03.16
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.03.04
6.06.02.02
The Solenoid field shall be straight to within +/-TBD(Units=TBD)
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.04.00
6.06.02.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 100(µT).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.04.01
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.02
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.01
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.02
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.03
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.04
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.05
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.06
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.07
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.08
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.09
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.10
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.11
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.12
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.13
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.14
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.15
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.04.03.16
6.06.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-LSR.05.00
6.06.02.02
The magnet shall be desuigned to meet the following external fringe field constraints
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.05.01
6.06.02.02
The magnet shall have a stray field of no more than 10 gauss at a radial distance of 1 (m) from the solenoid axis.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.05.02
6.06.02.02
The stray field from the magnet of shall not exceed TBD gauss for axial distances greater than .55(m) from the end plane of the magnet cryostat.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.00
6.06.02.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.01
6.06.02.02
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.02
6.06.02.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.03
6.06.02.02
The magnet shall be capable of removing a maximum total heat load of 7 (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.04
6.06.02.02
The magnet 2kA current leads pair cooling shall be capable of removing a maximum total heat load of 4.8 (W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of less than 0.24(g/s) from 4.5(K) to 300(K)
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.05
6.06.02.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.6(bar).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.06
6.06.02.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03 (bar).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.07
6.06.02.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.06.08
6.06.02.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.07.00
6.06.02.02
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.07.01
6.06.02.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.07.02
6.06.02.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.07.03
6.06.02.02
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.08.00
6.06.02.02
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.08.01
6.06.02.02
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.08.02
6.06.02.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-LSR.08.03
6.06.02.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/20/2025
In Process
FALSE

IR-MAG-ESR-Q0EF : IR Magnet Q0EF

P-IR-MAG-ESR-Q0EF.1.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.1.11.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.2.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.2.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.2.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.2.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.2.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.2.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.2.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.3.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.4.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q0EF.5
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.5.1
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.1
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.2
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.3
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.4
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.5
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.6
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.7
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.6.8
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.7
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.7.1
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.7.2
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.7.3
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.8
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.8.1
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.8.2
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.8.3
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.8.4
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.9
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q0EF.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-ESR-Q1EF : IR Magnet Q1EF

P-IR-MAG-ESR-Q1EF.1.1
6.06.02.01.01
The magnet shall be a mulple function magnet with a main quadrupole field with nomal rotation, a skew quadrupole corrector, a vertical and horizontal corrector.
01/28/2025
Approved
FALSE

P-IR-MAG-ESR-Q1EF.1.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.1.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.1.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.1.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall less than or equal to 1.61 (m) .
01/28/2025
Approved
FALSE

P-IR-MAG-ESR-Q1EF.1.7
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.1.8
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 63\63 (mm).
02/13/2025
Approved
FALSE

P-IR-MAG-ESR-Q1EF.1.10
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Forward main cryostat and comply with all inner IR geometry constraints
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.2.1.1
6.06.02.01.01
The main quadrupole maximum integrated gradient field required is 9.7 T, the magnet design shall include an additional 10% tuning margin giving a required field of 10.7T.m
01/28/2025
Approved
FALSE

P-IR-MAG-ESR-Q1EF.2.1.2
6.06.02.01.01
The skew quadrupole corrector overwinding maximum integrated gradient field required is 1.08 T, the magnet design shall include an additional 10% tuning margin giving a required field of TBDT.m
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.2.1.3
6.06.02.01.01
The vertical corrector overwinding maximum integrated gradient field required is TBD T, the magnet design shall include an additional 10% tuning margin giving a required field of TBD T.m
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.2.1.4
6.06.02.01.01
nan
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.2.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.2.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.2.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.2.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.2.6
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 42(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@5GeV)=TBD(Tm) B(@10GeV)=TBD(Tm) B(@18GeV)=TBD(Tm) .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 63 mm to 63mm. Rref=41.58 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.1
6.06.02.01.01
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.2
6.06.02.01.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.4.1
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.4.2
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.4.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.1
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.6
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.7
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.8
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.9
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.10
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.11
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.12
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.13
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.14
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.15
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.4.5.16
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.5.1
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1EF.5.2
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.1
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.3
6.06.02.01.01
nan
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.4
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.5
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.6
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.7
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.8
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.6.9
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.7.1
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.7.2
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.7.3
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.7.4
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of TBD(s) from full current.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.8.1
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.8.2
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.8.3
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.8.4
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.8.5
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1EF.9.10
6.06.04.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/21/2025
Approved
FALSE

P-IR-MAG-ESR-Q1EF.10.10
6.06.04.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/21/2025
In Process
FALSE

IR-MAG-ESR-Q1ER : IR Magnet Q1ER

P-IR-MAG-ESR-Q1ER.1.1
6.06.02.01.01
The magnet shall be a mulple function magnet with a main quadrupole field with nomal rotation, a skew quadrupole corrector, vertical corrector.
01/28/2025
Approved
FALSE

P-IR-MAG-ESR-Q1ER.1.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.1.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.1.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.1.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall less than or equal to 1.8 (m) .
01/28/2025
Approved
FALSE

P-IR-MAG-ESR-Q1ER.1.7
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.1.8
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 55.7\47.6 (mm).
02/13/2025
Approved
FALSE

P-IR-MAG-ESR-Q1ER.1.10
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Rear main cryostat and comply with all inner IR geometry constraints
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.2.1.1
6.06.02.01.01
The main quadrupole maximum integrated gradient field required is 14.44 T, the magnet design shall include an additional 10% tuning margin giving a required field of15.9T.m
01/28/2025
Approved
FALSE

P-IR-MAG-ESR-Q1ER.2.1.2
6.06.02.01.01
The skew quadrupole corrector overwinding maximum integrated gradient field required is TBD T, the magnet design shall include an additional 10% tuning margin giving a required field of TBD T.m
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.2.1.3
6.06.02.01.01
The vertical corrector overwinding maximum integrated gradient field required is TBD T, the magnet design shall include an additional 10% tuning margin giving a required field of TBD T.m
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.2.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.2.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.2.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.2.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.2.6
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 37(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@5GeV)=TBD(Tm) B(@10GeV)=TBD(Tm) B(@18GeV)=TBD(Tm) .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 55.7 mm to 47.6mm. Rref=36.762 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.1
6.06.02.01.01
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.2
6.06.02.01.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.4.1
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.4.2
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.4.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.1
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.6
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.7
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.8
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.9
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.10
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.11
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.12
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.13
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.14
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.15
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.4.5.16
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.5.1
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q1ER.5.2
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.1
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.3
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.4
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.5
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.6
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.7
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.8
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.6.9
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.7.1
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.7.2
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.7.3
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.7.4
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of TBD(s) from full current.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.8.1
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.8.2
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.8.3
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.8.4
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.8.5
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/28/2025
In Process
FALSE

P-IR-MAG-ESR-Q1ER.9.10
6.06.02.01.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
Approved
FALSE

P-IR-MAG-ESR-Q1ER.10.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-ESR-Q2ER : IR Magnet Q2ER

P-IR-MAG-ESR-Q2ER.1.1
6.06.02.01.01
The magnet shall have a single function quadrupole with a normal field direction along the beam axis
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-Q2ER.1.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.1.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.1.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.1.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall less than or equal to 1.4 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-ESR-Q2ER.1.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.1.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 64.3\64.3 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.1.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Rear main cryostat and comply with all inner IR geometry constraints
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.2.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.2.2
6.06.02.01.01
The maximum integrated gradient field required is 14.2857142857143 T, the magnet design shall include an additional 10% tuning margin giving a required field of15.7T.m
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.2.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.2.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.2.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.2.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 42(mm), centered at (x=0,y=0) mm with respect to the beam axis. The field shall be measured at 3 energies Energy 1 =5 GeV, Rr=30(mm) Energy 2 =10 GeV, Rr=30(mm) Energy 3 =18 GeV, Rr=30(mm) .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@5GeV)=TBD(Tm) B(@10GeV)=TBD(Tm) B(@18GeV)=TBD(Tm) .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 64.3 mm to 64.3mm. Rref=42.438 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.1
6.06.02.01.01
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.2
6.06.02.01.01
Measurement 1: b2= 10000, Measurement 2: b2= 10000, Measurement 3: b2= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.4
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.4.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.4.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-ESR-Q2ER.5
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the HSR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.5.1
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.1
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.3
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.4
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.5
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.6
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.7
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.6.8
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.7
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.7.1
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.7.2
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.7.3
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of TBD(s) from full current.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.8
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.8.1
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.8.2
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.8.3
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.8.4
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.9
6.06.02.01.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-ESR-Q2ER.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-ESR-SSR : IR Magnet SHORT_S

P-IR-MAG-ESR-SSR.01.01
6.06.02.02
The magnet shall be a single function solenoid with the solenoid field direction aligned along the beam axis.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.01.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.01.04
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.01.05
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.01.06
6.06.02.02
The physical length of the magnet cryostat shall be less than or equal to 2.5 (m).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.07
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.01.08
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.01.09
6.06.02.02
The magnet inner beam stay clear radius shall be greater than or equal to TBD (mm).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.10
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.01.11.00
6.06.02.02
The magnet shall be designed to fit within the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.01
6.06.02.02
The magnet cryostat shall be designed to fit within a cylindrical volume having an outside diameter less than 1.2 (m) and length less than 2.5 (m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.02.00
6.06.02.02
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat with can locate the field within the following tolerance limits:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.02.01
6.06.02.02
The magnetic field axis displacement tolerances: +/-TBD in X +/-TBD in Y Not Applicable in Z
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.01.11.02.02
6.06.02.02
The magnetic field rotational alignment tolerances: +/-TBD around x +/-TBD around y Rotational about Z is not applicable
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.01
6.06.02.02
The magnets maximum integrated field required is 15.43 (Tm), the magnet design shall include an additional 2% tuning margin giving a design field of 15.74 (Tm).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.02.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.02.04
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.02.05
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.02.06
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.02.07
6.06.02.02
The magnet needs to have a switchable polarity allowing it to deliver a solenoid field in either direction.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.07.01.00
6.06.02.02
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.07.01.01
6.06.02.02
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position +/-TBD in X +/-TBD in Y Not Applicable in Z
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.02.07.01.02
6.06.02.02
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis +/-TBD around X +/-TBD around Y Rotational about Z is not applicable
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.03.00
6.06.02.02
The magnet field homogenity shall be measured within the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.03.01
6.06.02.02
The integral field shall be measured within a cylindrical volume centered on the magnet axis having a radius of Rr of 33(mm), a length of TBD(m).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.03.02
6.06.02.02
The field (Bref) shall be measured at the magnets nominal field value.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.03.03
6.06.02.02
The magnet field variability |dB|/|B| within the measured volume shall not exceed TBD%
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.03.03.01
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.04
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.05
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.06
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.07
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.08
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.09
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.10
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.11
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.12
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.13
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.14
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.15
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.03.16
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.03.04
6.06.02.02
The Solenoid field shall be straight to within +/-TBD(Units=TBD)
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.04.00
6.06.02.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the HSR axis such that all harmonic multipoles average less than 100(µT).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.04.01
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.01
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.04
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.05
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.06
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.07
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.08
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.09
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.10
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.11
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.12
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.13
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.14
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.15
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.04.03.16
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-ESR-SSR.05.00
6.06.02.02
The magnet shall be desuigned to meet the following external fringe field constraints
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.05.01
6.06.02.02
The magnet shall have a stray field of no more than 10 gauss at a radial distance of 1 (m) from the solenoid axis.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.05.02
6.06.02.02
The stray field from the magnet of shall not exceed TBD gauss for axial distances greater than .55(m) from the end plane of the magnet cryostat.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.00
6.06.02.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system which meets the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.01
6.06.02.02
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.02
6.06.02.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.03
6.06.02.02
The magnet shall be capable of removing a maximum total heat load of 7 (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.04
6.06.02.02
The magnet 2kA current leads pair cooling shall be capable of removing a maximum total heat load of 4.8 (W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of less than 0.24(g/s) from 4.5(K) to 300(K)
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.05
6.06.02.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 18.6(bar).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.06
6.06.02.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03 (bar).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.07
6.06.02.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.06.08
6.06.02.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.07.00
6.06.02.02
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.07.01
6.06.02.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.07.02
6.06.02.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.07.03
6.06.02.02
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.08.00
6.06.02.02
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.08.01
6.06.02.02
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.08.02
6.06.02.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/20/2025
In Process
FALSE

P-IR-MAG-ESR-SSR.08.03
6.06.02.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/20/2025
In Process
FALSE

IR-MAG-HSR : Interaction Region/Hadron Stroage Ring Magnets

IR-MAG-HSR-B0APF : IR Magnet B0APF

P-IR-MAG-HSR-B0APF.1.1
6.06.02.01.01
The magnet shall be a mulple function magnet with a main Dipole field in the vertical direction, a skew quadrupole corrector and a vertical corrector.
01/28/2025
Approved
FALSE

P-IR-MAG-HSR-B0APF.1.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.1.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.1.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.1.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.1.6
6.06.02.01.01
The physical length of the main Dipole magnet cold mass insert shall less than or equal to 0.6 (m) .
01/28/2025
Approved
FALSE

P-IR-MAG-HSR-B0APF.1.7
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.1.8
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 43\43 (mm).
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B0APF.1.10
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Forward main cryostat and comply with all inner IR geometry constraints
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.2.1.1
6.06.02.01.01
The main dipole maximum integrated field required is 2 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 2.2 (Tm)
01/28/2025
Approved
FALSE

P-IR-MAG-HSR-B0APF.2.1.2
6.06.02.01.01
The skew quadrupole corrector overwinding maximum integrated field required is 1.08 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of TBD (Tm)
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.2.1.3
6.06.02.01.01
The vertical corrector overwinding maximum integrated field required is TBD (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of TBD (Tm)
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.2.2
6.06.02.01.01
nan
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.2.3
6.06.02.01.01
The main dipole shall have a peak ramp rate of 0.022T/s A/s and be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.2.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.2.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.2.6
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=na Rotational about Y=na Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 28(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(T) B(@41GeV)=TBD(T) B(@100GeV)=TBD(T) B(@275GeV)=TBD(T) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 43 mm to 43mm. Rref=28.38 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.1
6.06.02.01.01
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.2
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.4.1
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.4.2
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.4.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.1
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.2
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.3
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.4
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.5
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.6
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.7
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.8
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.9
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.10
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.11
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.12
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.13
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.14
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.15
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.4.5.16
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.5.1
6.06.02.01.01
< blank >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0APF.5.2
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.1
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.3
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.4
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.5
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.6
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.7
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.8
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.6.9
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.7.1
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.7.2
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.7.3
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.7.4
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.8.1
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.8.2
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.8.3
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.8.4
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.8.5
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/28/2025
In Process
FALSE

P-IR-MAG-HSR-B0APF.9
6.06.02.01.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B0APF.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-B0PF : IR Magnet B0PF

P-IR-MAG-HSR-B0PF.1.1
6.06.02.01.01
The magnet shall have a single function dipole with a vertical field direction along the beam axis.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B0PF.1.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.1.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.1.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.1.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall less than or equal to 1.2 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B0PF.1.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.1.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 200\200 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.1.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the forward B0PF\Q0EF cryostat and comply with all inner IR geometry constraints
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.2.1
6.06.02.01.01
The maximum integrated field required is 1.42 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 1.6 (Tm)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.2.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.2.3
6.06.02.01.01
The magnet shall have a peak ramp rate of 0.008T/s A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.2.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.2.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.2.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=na Rotational about Y=na Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 66(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(T) B(@41GeV)=TBD(T) B(@100GeV)=TBD(T) B(@275GeV)=TBD(T) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 200 mm to 200mm. Rref=66 Assumes 1/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.1
6.06.02.01.01
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.2
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.4
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.4.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.4.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B0PF.5
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.5.1
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.1
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.3
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.4
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.5
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.6
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.7
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.6.8
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.7
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.7.1
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.7.2
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.7.3
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.8
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.8.1
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.8.2
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.8.3
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.8.4
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.9
6.06.02.01.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B0PF.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-B1APF : IR Magnet B1APF

P-IR-MAG-HSR-B1APF.1
6.06.02.01.02
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.2
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.3
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.4
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.5
6.06.02.01.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.6
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.7
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.8
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.9
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.10
6.06.02.01.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.11
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.12
6.06.02.01.02
The physical length of the magnet cold mass insert shall be less than or equal to 1.5(m).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.13
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.14
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.15
6.06.02.01.02
The maximum integrated dipole field required is 4.05(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 4.46(Tm).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.16
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.17
6.06.02.01.02
The magnet shall have a peak ramp rate of 0.02(T/s) and be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here].
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.18
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.19
6.06.02.01.02
The harmonic Reference radius (Rr) shall be 45(mm), centered at (x=0(mm),y=0(mm)) with respect to the magnet axis.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.20
6.06.02.01.02
The Reference field (Bref) for the four different measurements shall be: Measurement 1 = 0.34(Tm) Measurement 2 = 0.61(Tm) Measurement 3 = 1.49(Tm) Measurement 4 = 4.46(Tm)
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21
6.06.02.01.02
The magnet bore field shall have the following multipole content: Notes: The units are in parts of 10^-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units. A range of -2 to +2 units is a 1st pass. It is assumed all components have a normal distribution of values within this range. More analysis is needed to understand, how to better define the spread in single real magnet and the effect of such a distribution on the beam.
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.1
6.06.02.01.02
Measurement 1: b1=10000, Measurement 2: b1=10000, Measurement 3: b1=10000, Measurement 4: b1=10000
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.2
6.06.02.01.02
Measurement 1: -2 < b2 < 2, Measurement 2: -2 < b2 < 2, Measurement 3: -2 < b2 < 2, Measurement 4: -2 < b2 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.3
6.06.02.01.02
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.4
6.06.02.01.02
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.5
6.06.02.01.02
Measurement 1: -2 < b5 <2, Measurement 2: -2 < b5 <2, Measurement 3: -2 < b5 <2, Measurement 4: -2 < b5 <2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.6
6.06.02.01.02
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.7
6.06.02.01.02
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.8
6.06.02.01.02
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.9
6.06.02.01.02
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.10
6.06.02.01.02
Measurement 1: -2 < b10 <2, Measurement 2: -2 < b10 <2, Measurement 3: -2 < b10 <2, Measurement 4: -2 < b10 <2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.11
6.06.02.01.02
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.12
6.06.02.01.02
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.13
6.06.02.01.02
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.14
6.06.02.01.02
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.15
6.06.02.01.02
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.21.16
6.06.02.01.02
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.22
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) and have all harmonic multipoles with an average less than 10(µT).
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.23
6.06.02.01.02
The magnet cross-talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from B1APF on the center axis of the ESR shall be less than 10(gauss).
01/27/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1APF.24
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.25
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.1
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.2
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.3
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.4
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.5
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.6
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.7
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.8
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.9
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.10
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.11
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.12
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.13
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.14
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.15
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.26.16
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.27
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.28
6.06.02.01.02
The magnet shall be designed such that at its maximum energy the magnet fringe field shall not be greater than 40(gauss) on the RCS beam line.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.29
6.06.02.01.02
The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: Note: Z is along the beam axis
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.29 .1
6.06.02.01.02
Field center displacement (with respect to the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z= na
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.29 .2
6.06.02.01.02
Field rotational alignment (with respect to the physical magnets primary axis X,Y,Z) Rotational about X= na Rotational about Y= na Rotational about Z= +/-0.2(mrad)
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.30
6.06.02.01.02
The magnet shall be designed to fit within the IR Forward main cryostat and comply with all inner IR geometry constraints. Note: The geometry required is contained in the Forward IR Main cryostat Interface requirements. [EIC-SEG-RSI-063: Forward IR main SC magnet cryostat Interface control document]
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.31
6.06.02.01.02
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
02/13/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1APF.31 .1
6.06.02.01.02
Magnet cold mass center displacement (with respect to the nominal beam position) Displacement in X= 2(mm) Displacement in Y= 2(mm) Displacement in Z= 2(mm)
02/13/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1APF.31 .2
6.06.02.01.02
Magnet cold rotational alignment (with respect to the nominal beam axis) Rotational about X= +/-0.2(mrad) Rotational about Y= +/-0.2(mrad) Rotational about Z= +/-0.2(mrad)
02/13/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1APF.32
6.06.02.01.02
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.33
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.1
6.06.02.01.02
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar) and 1.92(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.2
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.3
6.06.02.01.02
The magnet shall be capable of removing a maximum total heat load of 5.9 Watts while maintaining nominal operating conditions under 1.3(bar) and 1.92(k).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.4
6.06.02.01.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of 36 Watts at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of 1.8(g/s) from 4.5(K) to 300(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.5
6.06.02.01.02
The maximum internal pressure in the magnet structure shall be 10(bar).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.6
6.06.02.01.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.7
6.06.02.01.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.33.8
6.06.02.01.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.34
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.35
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.36
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.37
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.37.1
6.06.02.01.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.37.2
6.06.02.01.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.37.3
6.06.02.01.02
The magnet shall not quench when ramping down within a time interval of 360 seconds from full current.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.38
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.39
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.40
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.41
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.41.1
6.06.02.01.02
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.41.2
6.06.02.01.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.41.3
6.06.02.01.02
All SC magnet Splice resistances within the coil module or to the coil module shall be less than 1.0(nOhm) at 1.9(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.41.4
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.42
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.43
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.44
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.45
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.46
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
01/27/2025
On Hold
FALSE

P-IR-MAG-HSR-B1APF.47
6.06.02.01.02
All components must withstand the radiation dose during operation or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List.
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.48
6.06.02.01.02
The magnet shall have a clear volume as needed to accommodate the beam pipe.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1APF.49
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1APF.50
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

IR-MAG-HSR-B1PF : IR Magnet B1PF

P-IR-MAG-HSR-B1PF.1
6.06.02.01.02
The magnet shall have a single function.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.2
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.3
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.4
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PF.5
6.06.02.01.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.6
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.7
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PF.8
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.9
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PF.10
6.06.02.01.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PF.11
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.12
6.06.02.01.02
The physical length of the magnet cold mass insert shall be less than or equal to 3(m).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.13
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.14
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.15
6.06.02.01.02
The maximum integrated dipole field required is 10.2(Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 11.2(Tm).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.16
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.17
6.06.02.01.02
The magnet shall have a peak ramp rate of 0.025(T/s) and be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here])
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.18
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.19
6.06.02.01.02
The harmonic Reference radius (Rr) shall be 45(mm), centered at (x=0(mm),y=0(mm)) with respect to the magnet axis.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.20
6.06.02.01.02
The Reference field (Bref) for the four different measurements shall be: Measurement 1= 0.85(Tm) Measurement 2= 1.52(Tm) Measurement 3= 3.63(Tm) Measurement 4= 11.2(Tm)
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21
6.06.02.01.02
The magnet bore field shall have the following multipole content: Notes: The units are in parts of 10^-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units. A range of -2 to +2 units is a 1st pass. It is assumed all components have a normal distribution of values within this range. More analysis is needed to understand, how to better define the spread in single real magnet and the effect of such a distribution on the beam.
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.1
6.06.02.01.02
Measurement 1: b1=10000, Measurement 2: b1=10000, Measurement 3: b1=10000, Measurement 4: b1=10000
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.2
6.06.02.01.02
Measurement 1: -2 < b2 < 2, Measurement 2: -2 < b2 < 2, Measurement 3: -2 < b2 < 2, Measurement 4: -2 < b2 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.3
6.06.02.01.02
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.4
6.06.02.01.02
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.5
6.06.02.01.02
Measurement 1: -2 < b5 <2, Measurement 2: -2 < b5 <2, Measurement 3: -2 < b5 <2, Measurement 4: -2 < b5 <2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.6
6.06.02.01.02
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.7
6.06.02.01.02
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.8
6.06.02.01.02
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.9
6.06.02.01.02
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.10
6.06.02.01.02
Measurement 1: -2 < b10 <2, Measurement 2: -2 < b10 <2, Measurement 3: -2 < b10 <2, Measurement 4: -2 < b10 <2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.11
6.06.02.01.02
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.12
6.06.02.01.02
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.13
6.06.02.01.02
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.14
6.06.02.01.02
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.15
6.06.02.01.02
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.21.16
6.06.02.01.02
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.22
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) and have all harmonic multipoles with an average less than 10(µT).
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.23
6.06.02.01.02
The magnet cross-talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from B1PF on the center axis of the ESR shall be less than 10(gauss).
01/27/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1PF.24
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.25
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.1
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.2
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.3
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.4
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.5
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.6
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.7
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.8
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.9
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.10
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.11
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.12
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.13
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.14
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.15
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.26.16
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.27
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.28
6.06.02.01.02
The magnet shall be designed such that at its maximum energy the magnet fringe field shall not be greater than 40(gauss) on the RCS beam line.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.29
6.06.02.01.02
The field alignment within the magnet, position and alignment values shall be within the following tolerance limits. Note: Z is along the beam axis.
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.29 .1
6.06.02.01.02
Field center displacement (with respect to the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z= na
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.29 .2
6.06.02.01.02
Field rotational alignment (with respect to the physical magnets primary axis X,Y,Z) Rotational about X= na Rotational about Y= na Rotational about Z= +/-0.2(mrad)
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.30
6.06.02.01.02
The magnet shall be designed to fit within the IR Forward main cryostat and comply with all inner IR geometry constraints. Note: The geometry required is contained in the Forward IR Main cryostat Interface requirements. [EIC-SEG-RSI-063: Forward IR main SC magnet cryostat Interface control document]
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.31
6.06.02.01.02
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
02/13/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1PF.31 .1
6.06.02.01.02
Magnet cold mass center displacement (with respect to the nominal beam position) Displacement in X= 2(mm) Displacement in Y= 2(mm) Displacement in Z= 2(mm)
02/13/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1PF.31 .2
6.06.02.01.02
Magnet cold rotational alignment (with respect to the nominal beam Axis) Rotational about X= +/-0.2(mrad) Rotational about Y= +/-0.2(mrad) Rotational about Z= +/-0.2(mrad)
02/13/2025
Reviewed
FALSE

P-IR-MAG-HSR-B1PF.32
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.33
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.1
6.06.02.01.02
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar) and 1.92(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.2
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.3
6.06.02.01.02
The magnet shall be capable of removing a maximum total heat load of 4.1(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.4
6.06.02.01.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of 24(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of 1.2(g/s) from 4.5(K) to 300(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.5
6.06.02.01.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.6
6.06.02.01.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.7
6.06.02.01.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.33.8
6.06.02.01.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.34
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.35
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.36
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.37
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.37.1
6.06.02.01.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.37.2
6.06.02.01.02
After magnet thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.37.3
6.06.02.01.02
The magnet shall not quench when ramping down within a time differential of 360 seconds from full current.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.38
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.39
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.40
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.41
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.41.1
6.06.02.01.02
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest =( 2xPeak Voltage + 500 Volts ).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.41.2
6.06.02.01.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead in and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.41.3
6.06.02.01.02
All SC magnet Splice resistances within the coil module or to the coil module shall be less than 1.0(nOhm) at 1.9(K).
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.41.4
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.42
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.43
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.44
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.45
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.46
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
01/27/2025
On Hold
FALSE

P-IR-MAG-HSR-B1PF.47
6.06.02.01.02
All components must withstand the radiation dose during operation or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List.
02/13/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.48
6.06.02.01.02
The magnet shall have a clear volume as needed to accommodate the beam pipe.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PF.49
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PF.50
< Requirement Not Applicable >
01/27/2025
Not Applicable
FALSE

IR-MAG-HSR-B1PR : IR Magnet B1PR

P-IR-MAG-HSR-B1PR.1.1
6.06.02.01.02
The magnet shall have a single function dipole with a vertical field direction along the beam axis.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PR.1.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.1.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.1.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.1.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.1.6
6.06.02.01.02
The physical length of the magnet cold mass insert shall less than or equal to 3.7 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B1PR.1.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.1.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.1.9
6.06.02.01.02
The inner beam tube bore radius when warm, shall be greater than or equal to TBD\TBD (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.1.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.1.11
6.06.02.01.02
The magnet shall be designed to fit within the following constraints, The entire matching coil cryostat, any ancilliary equipment and support structure must fit within the tunnel and not imped the any other EIC components or block egress.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.1.11.1
6.06.02.01.02
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.2.1
6.06.02.01.02
The maximum integrated field required is 15.54 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 17.1 (Tm)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.2.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.2.3
6.06.02.01.02
The magnet shall have a peak ramp rate of 0.028T/s A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.2.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.2.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.2.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.2.7
6.06.02.01.02
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=na Rotational about Y=na Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.1
6.06.02.01.02
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be TBD(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.2
6.06.02.01.02
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(T) B(@41GeV)=TBD(T) B(@100GeV)=TBD(T) B(@275GeV)=TBD(T) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3
6.06.02.01.02
The magnet bore field shall have the following multipole content: - .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.1
6.06.02.01.02
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.2
6.06.02.01.02
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.3
6.06.02.01.02
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.4
6.06.02.01.02
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.5
6.06.02.01.02
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.6
6.06.02.01.02
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.7
6.06.02.01.02
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.8
6.06.02.01.02
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.9
6.06.02.01.02
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.10
6.06.02.01.02
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.11
6.06.02.01.02
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.12
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.13
6.06.02.01.02
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.14
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.15
6.06.02.01.02
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.3.3.16
6.06.02.01.02
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.4
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.4.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.9
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.11
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.12
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.13
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.14
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.15
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.4.3.16
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B1PR.5
6.06.02.01.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.5.1
6.06.02.01.02
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.1
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.2
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.3
6.06.02.01.02
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.4
6.06.02.01.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.5
6.06.02.01.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.6
6.06.02.01.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.7
6.06.02.01.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.6.8
6.06.02.01.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.7
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.7.1
6.06.02.01.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.7.2
6.06.02.01.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.7.3
6.06.02.01.02
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.8
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.8.1
6.06.02.01.02
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.8.2
6.06.02.01.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.8.3
6.06.02.01.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.8.4
6.06.02.01.02
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.9
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B1PR.10
6.06.02.01.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-B2PF : IR Magnet B2PF

P-IR-MAG-HSR-B2PF.01.01
6.06.02.02
The magnet shall have a single function dipole with a vertical field direction along the beam axis.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.01.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.01.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.01.04
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.01.05
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.01.06
6.06.02.02
The physical length of the magnet cold mass insert shall be less than or equal to 3.1 (m).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.01.07
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.01.08
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.01.09
6.06.02.02
The inner beam tube bore radius when warm, shall be greater than or equal to 60(mm).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.01.10
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.01.11.00
6.06.02.02
The magnet shall be designed to fit within the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.01.11.01
6.06.02.02
The magnet cryostat shall be designed to fit within a cylindrical volume having an outside diameter less than 1.16(m) and length less than 3.3(m). All ancillary equipment and support structures which project outside this volume must be approved by EIC engineering to ensure the design does not impede any other EIC components or block egress.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.01.11.02.00
6.06.02.02
The magnet field axis displacement and rotational alignment shall be identified using fiducials on the magnet cryostat that can locate the field within the following tolerance limits: (Note: Z is along the beam axis)
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.01.11.02.01
6.06.02.02
The magnetic field axis displacement tolerances: Displacement in X= na Displacement in Y= na Displacement in Z= na
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.01.11.02.02
6.06.02.02
The magnetic field rotational alignment tolerances: Rotational about X= na Rotational about Y= na Rotational about Z= +/-0.2(mrad)
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.02.01
6.06.02.02
The maximum integrated dipole field required is 15.4 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 16.94 (Tm).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.02.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.02.03
6.06.06.03
The magnet shall have a peak ramp rate of TBD T/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document to be added here]
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.02.04
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.02.05
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.02.06
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.02.07
< Requirement Not Applicable >
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.02.07.01.00
6.06.02.02
The magnet cryostat installation position and alignment with respect to the nominal beam position defined in the lattice file and axis shall be within the following limits: (Note: Z is along the beam axis)
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.02.07.01.01
6.06.02.02
The magnet cold install center displacement shall be aligned with respect to the specified lattice field center position Displacement in X= 2(mm) Displacement in Y= 2(mm) Displacement in Z= 2(mm)
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.02.07.01.02
6.06.02.02
The magnet cold rotational alignment shall be aligned with respect to the specified lattice beam axis Rotational about X= +/-0.2(mrad) Rotational about Y= +/-0.2(mrad) Rotational about Z= +/-0.2(mrad)
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.03.00
6.06.02.02
The magnet field homogenity shall be measured within the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.03.01
6.06.02.02
The field at the reference radius Bref shall be, B(at 23GeV)=TBD(T) ~0.45T B(at 41GeV)=TBD(T) ~0.81T B(at100GeV)=TBD(T) ~1.98T B(at 275GeV)=TBD(T). ~5.46T
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.03.02
6.06.02.02
The field (Bref) shall be measured at the magnets nominal field value.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.03.03
6.06.02.02
The magnet bore field SHALL has the following multipole content. Notes: The units are specified in parts of 10-4 of the main components. All undefined harmonics are assumed to be less than +/-0.5 units.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.03.03.01
6.06.06.03
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.02
6.06.06.03
Measurement 1: -2 < b2 < 2, Measurement 2: -2 < b2 < 2, Measurement 3: -2 < b2 < 2, Measurement 4: -2 < b2 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.03
6.06.06.03
Measurement 1: -2 < b3 < 2, Measurement 2: -2 < b3 < 2, Measurement 3: -2 < b3 < 2, Measurement 4: -2 < b3 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.04
6.06.06.03
Measurement 1: -2 < b4 < 2, Measurement 2: -2 < b4 < 2, Measurement 3: -2 < b4 < 2, Measurement 4: -2 < b4 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.05
6.06.06.03
Measurement 1: -2 < b5 <2, Measurement 2: -2 < b5 <2, Measurement 3: -2 < b5 <2, Measurement 4: -2 < b5 <2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.06
6.06.06.03
Measurement 1: -2 < b6 < 2, Measurement 2: -2 < b6 < 2, Measurement 3: -2 < b6 < 2, Measurement 4: -2 < b6 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.07
6.06.06.03
Measurement 1: -2 < b7 < 2, Measurement 2: -2 < b7 < 2, Measurement 3: -2 < b7 < 2, Measurement 4: -2 < b7 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.08
6.06.06.03
Measurement 1: -2 < b8 < 2, Measurement 2: -2 < b8 < 2, Measurement 3: -2 < b8 < 2, Measurement 4: -2 < b8 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.09
6.06.06.03
Measurement 1: -2 < b9 < 2, Measurement 2: -2 < b9 < 2, Measurement 3: -2 < b9 < 2, Measurement 4: -2 < b9 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.10
6.06.06.03
Measurement 1: -2 < b10 <2, Measurement 2: -2 < b10 <2, Measurement 3: -2 < b10 <2, Measurement 4: -2 < b10 <2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.11
6.06.06.03
Measurement 1: -2 < b11 < 2, Measurement 2: -2 < b11 < 2, Measurement 3: -2 < b11 < 2, Measurement 4: -2 < b11 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.12
6.06.06.03
Measurement 1: -2 < b12 < 2, Measurement 2: -2 < b12 < 2, Measurement 3: -2 < b12 < 2, Measurement 4: -2 < b12 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.13
6.06.06.03
Measurement 1: -2 < b13 < 2, Measurement 2: -2 < b13 < 2, Measurement 3: -2 < b13 < 2, Measurement 4: -2 < b13 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.14
6.06.06.03
Measurement 1: -2 < b14 < 2, Measurement 2: -2 < b14 < 2, Measurement 3: -2 < b14 < 2, Measurement 4: -2 < b14 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.15
6.06.06.03
Measurement 1: -2 < b15 < 2, Measurement 2: -2 < b15 < 2, Measurement 3: -2 < b15 < 2, Measurement 4: -2 < b15 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.03.16
6.06.06.03
Measurement 1: -2 < b16 < 2, Measurement 2: -2 < b16 < 2, Measurement 3: -2 < b16 < 2, Measurement 4: -2 < b16 < 2
02/21/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.03.04.00
< Requirement Not Applicable >
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.04.00
6.06.02.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.04.01
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.01
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.02
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.03
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.04
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.05
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.06
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.07
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.08
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.09
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.10
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.11
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.12
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.13
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.14
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.15
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.04.03.16
< Requirement Not Applicable >
02/20/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PF.05.00
6.06.02.02
The magnet shall be desuigned to meet the following external fringe field constraints
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.05.01
6.06.02.02
The magnet shall have a stray field of no more than 10 gauss at a radial distance of 1 (m) from the solenoid axis.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.05.02
6.06.02.02
†The stray field from the magnet of shall not exceed TBD gauss for axial distances greater than TBD(m) from the end plane of the magnet cryostat.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.00
6.06.02.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system and meet the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.01
6.06.02.02
The magnet shall be designed to be cooled and sustain operations at nominal operating conditions with a superfluid helium (HeII) Bath. The Bath will operate with a pressurized magnet volume at 1.3(bar). The sub-atmospheric side of the heat exchanger will operate at 1.92(K) and the corresponding saturated vapor pressure of 25.4(mbar).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.02
6.06.02.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeII) bath at 1.3(bar) and 4.5(K).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.03
6.06.02.02
The magnet shall be capable of removing a maximum total heat load of TBD (W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.04
6.06.02.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining nominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.05
6.06.02.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be TBD(bar).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.06
6.06.02.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.07
6.06.02.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.06.08
6.06.02.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.07.00
6.06.02.02
The magnet shall have an appropriate quench protection system which ensures all electromagnetic, thermal and cryogenic connected systems are not damaged in a quench event and meets the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.07.01
6.06.02.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.07.02
6.06.02.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.07.03
6.06.02.02
The magnet shall be designed to attain the design field with no more than 20 training quenches.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.08.00
6.06.02.02
All electrical connection to the magnet for the main current leads, ininstrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections and meet the following constraints:
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.08.01
6.06.02.02
The magnet coils and quench protection heaters shall pass a Hi-Pot test at nominal operating conditions corresponding to Vtest = (2xPeak Voltage +500 Volts).
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.08.02
6.06.02.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.08.03
6.06.02.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.09.00
6.06.02.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermalcycle] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/20/2025
In Process
FALSE

P-IR-MAG-HSR-B2PF.10.00
6.06.02.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/20/2025
In Process
FALSE

IR-MAG-HSR-B2PR : IR Magnet B2PR

P-IR-MAG-HSR-B2PR.1.1
6.06.02.01.02
The magnet shall have a single function dipole with a vertical field direction along the beam axis.
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B2PR.1.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.1.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.1.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.1.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.1.6
6.06.02.01.02
The physical length of the magnet cold mass insert shall less than or equal to 3.7 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-B2PR.1.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.1.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.1.9
6.06.02.01.02
The inner beam tube bore radius when warm, shall be greater than or equal to TBD\TBD (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.1.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.1.11
6.06.02.01.02
The magnet shall be designed to fit within the following constraints, The entire matching coil cryostat, any ancilliary equipment and support structure must fit within the tunnel and not imped the any other EIC components or block egress.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.1.11.1
6.06.02.01.02
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.2.1
6.06.02.01.02
The maximum integrated field required is 15.54 (Tm), the magnet design shall include an additional 10% tuning margin giving a required field of 17.1 (Tm)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.2.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.2.3
6.06.02.01.02
The magnet shall have a peak ramp rate of 0.028T/s A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.2.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.2.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.2.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.2.7
6.06.02.01.02
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= na Displacement in Y= na Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=na Rotational about Y=na Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.1
6.06.02.01.02
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be TBD(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.2
6.06.02.01.02
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(T) B(@41GeV)=TBD(T) B(@100GeV)=TBD(T) B(@275GeV)=TBD(T) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3
6.06.02.01.02
The magnet bore field shall have the following multipole content: - .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.1
6.06.02.01.02
Measurement 1: b1= 10000, Measurement 2: b1= 10000, Measurement 3: b1= 10000, Measurement 4: b1= 10000 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.2
6.06.02.01.02
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.3
6.06.02.01.02
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.4
6.06.02.01.02
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.5
6.06.02.01.02
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.6
6.06.02.01.02
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.7
6.06.02.01.02
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.8
6.06.02.01.02
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.9
6.06.02.01.02
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.10
6.06.02.01.02
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.11
6.06.02.01.02
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.12
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.13
6.06.02.01.02
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.14
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.15
6.06.02.01.02
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.3.3.16
6.06.02.01.02
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.4
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.4.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.9
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.11
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.12
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.13
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.14
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.15
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.4.3.16
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-B2PR.5
6.06.02.01.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.5.1
6.06.02.01.02
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.1
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.2
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.3
6.06.02.01.02
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.4
6.06.02.01.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.5
6.06.02.01.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.6
6.06.02.01.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.7
6.06.02.01.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.6.8
6.06.02.01.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.7
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.7.1
6.06.02.01.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.7.2
6.06.02.01.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.7.3
6.06.02.01.02
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.8
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.8.1
6.06.02.01.02
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.8.2
6.06.02.01.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.8.3
6.06.02.01.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.8.4
6.06.02.01.02
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.9
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-B2PR.10
6.06.02.01.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-Q1APF : IR Magnet Q1APF

P-IR-MAG-HSR-Q1APF.1.1
6.06.02.01.02
The magnet shall have a single function quadrupole with a normal field direction along the beam axis
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q1APF.1.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.1.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.1.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.1.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.1.6
6.06.02.01.02
The physical length of the magnet cold mass insert shall less than or equal to 1.46 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q1APF.1.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.1.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.1.9
6.06.02.01.02
The inner beam tube bore radius when warm, shall be greater than or equal to 56\56 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.1.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.1.11
6.06.02.01.02
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Forward main cryostat and comply with all inner IR geometry constraints
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.1.11.1
6.06.02.01.02
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.2.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.2.2
6.06.02.01.02
The maximum integrated gradient field required is 122 T, the magnet design shall include an additional 10% tuning margin giving a required field of134.2T.m
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.2.3
6.06.02.01.02
The magnet shall have a peak ramp rate of 0.557T/ms A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.2.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.2.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.2.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.2.7
6.06.02.01.02
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.1
6.06.02.01.02
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 37(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.2
6.06.02.01.02
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(Tm) B(@41GeV)=TBD(Tm) B(@100GeV)=TBD(Tm) B(@275GeV)=TBD(Tm) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3
6.06.02.01.02
The magnet bore field shall have the following multipole content: Aperture radius from 56 mm to 56mm. Rref=36.96 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.1
6.06.02.01.02
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.2
6.06.02.01.02
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.3
6.06.02.01.02
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.4
6.06.02.01.02
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.5
6.06.02.01.02
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.6
6.06.02.01.02
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.7
6.06.02.01.02
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.8
6.06.02.01.02
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.9
6.06.02.01.02
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.10
6.06.02.01.02
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.11
6.06.02.01.02
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.12
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.13
6.06.02.01.02
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.14
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.15
6.06.02.01.02
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.3.3.16
6.06.02.01.02
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.4
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.4.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.9
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.11
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.12
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.13
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.14
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.15
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.4.3.16
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1APF.5
6.06.02.01.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.5.1
6.06.02.01.02
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.1
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.2
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.3
6.06.02.01.02
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.4
6.06.02.01.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.5
6.06.02.01.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.6
6.06.02.01.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.7
6.06.02.01.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.6.8
6.06.02.01.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.7
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.7.1
6.06.02.01.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.7.2
6.06.02.01.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.7.3
6.06.02.01.02
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.8
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.8.1
6.06.02.01.02
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.8.2
6.06.02.01.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.8.3
6.06.02.01.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.8.4
6.06.02.01.02
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.9
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1APF.10
6.06.02.01.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-Q1APR : IR Magnet Q1APR

IR-MAG-HSR-Q1BPF

P-IR-MAG-HSR-Q1BPF.1.1
6.06.02.01.02
The magnet shall have a single function quadrupole with a normal field direction along the beam axis
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q1BPF.1.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.1.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.1.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.1.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.1.6
6.06.02.01.02
The physical length of the magnet cold mass insert shall less than or equal to 1.61 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q1BPF.1.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.1.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.1.9
6.06.02.01.02
The inner beam tube bore radius when warm, shall be greater than or equal to 78\78 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.1.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.1.11
6.06.02.01.02
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Forward main cryostat and comply with all inner IR geometry constraints
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.1.11.1
6.06.02.01.02
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.2.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.2.2
6.06.02.01.02
The maximum integrated gradient field required is 78 T, the magnet design shall include an additional 10% tuning margin giving a required field of85.8T.m
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.2.3
6.06.02.01.02
The magnet shall have a peak ramp rate of 0.323T/ms A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.2.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.2.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.2.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.2.7
6.06.02.01.02
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.1
6.06.02.01.02
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 51(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.2
6.06.02.01.02
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(T) B(@41GeV)=TBD(T) B(@100GeV)=TBD(T) B(@275GeV)=TBD(T) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3
6.06.02.01.02
The magnet bore field shall have the following multipole content: Aperture radius from 78 mm to 78mm. Rref=51.48 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.1
6.06.02.01.02
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.2
6.06.02.01.02
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.3
6.06.02.01.02
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.4
6.06.02.01.02
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.5
6.06.02.01.02
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.6
6.06.02.01.02
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.7
6.06.02.01.02
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.8
6.06.02.01.02
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.9
6.06.02.01.02
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.10
6.06.02.01.02
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.11
6.06.02.01.02
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.12
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.13
6.06.02.01.02
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.14
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.15
6.06.02.01.02
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.3.3.16
6.06.02.01.02
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.4
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.4.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.9
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.11
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.12
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.13
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.14
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.15
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.4.3.16
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPF.5
6.06.02.01.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.5.1
6.06.02.01.02
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.1
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.2
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.3
6.06.02.01.02
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.4
6.06.02.01.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.5
6.06.02.01.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.6
6.06.02.01.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.7
6.06.02.01.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.6.8
6.06.02.01.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.7
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.7.1
6.06.02.01.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.7.2
6.06.02.01.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.7.3
6.06.02.01.02
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.8
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.8.1
6.06.02.01.02
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.8.2
6.06.02.01.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.8.3
6.06.02.01.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.8.4
6.06.02.01.02
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.9
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPF.10
6.06.02.01.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-Q1BPR : IR Magnet Q1BPR

P-IR-MAG-HSR-Q1BPR.1.1
6.06.02.01.01
The magnet shall have a single function quadrupole with a normal field direction along the beam axis
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.1.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.1.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.1.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.1.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall less than or equal to 1.4 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q1BPR.1.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.1.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 27.99\27.99 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.1.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Rear main cryostat and comply with all inner IR geometry constraints
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.2.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.2.2
6.06.02.01.01
The maximum integrated gradient field required is 75.7142857142857 T, the magnet design shall include an additional 10% tuning margin giving a required field of83.3T.m
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.2.3
6.06.02.01.01
The magnet shall have a peak ramp rate of 0.361T/ms A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.2.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.2.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.2.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 18(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(Tm) B(@41GeV)=TBD(Tm) B(@100GeV)=TBD(Tm) B(@275GeV)=TBD(Tm) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 27.99 mm to 27.99mm. Rref=18.4734 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.1
6.06.02.01.01
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.2
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.4
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.4.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.4.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q1BPR.5
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.5.1
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.1
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.3
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.4
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.5
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.6
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.7
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.6.8
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.7
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.7.1
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.7.2
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.7.3
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.8
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.8.1
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.8.2
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.8.3
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.8.4
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.9
6.06.02.01.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q1BPR.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-Q2PF : IR Magnet Q2PF

P-IR-MAG-HSR-Q2PF.1.1
6.06.02.01.02
The magnet shall have a single function quadrupole with a normal field direction along the beam axis
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q2PF.1.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.1.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.1.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.1.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.1.6
6.06.02.01.02
The physical length of the magnet cold mass insert shall less than or equal to 3.8 (m) .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q2PF.1.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.1.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.1.9
6.06.02.01.02
The inner beam tube bore radius when warm, shall be greater than or equal to 131\131 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.1.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.1.11
6.06.02.01.02
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Forward main cryostat and comply with all inner IR geometry constraints
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.1.11.1
6.06.02.01.02
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.2.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.2.2
6.06.02.01.02
The maximum integrated gradient field required is 132 T, the magnet design shall include an additional 10% tuning margin giving a required field of145.2T.m
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.2.3
6.06.02.01.02
The magnet shall have a peak ramp rate of 0.232T/ms A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.2.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.2.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.2.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.2.7
6.06.02.01.02
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.1
6.06.02.01.02
The harmonic reference radius Rr shall be The harmonic reference radius Rr shall be 43(mm), centered at (x=0,y=0) mm with respect to the beam axis. .
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.2
6.06.02.01.02
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(Tm) B(@41GeV)=TBD(Tm) B(@100GeV)=TBD(Tm) B(@275GeV)=TBD(Tm) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3
6.06.02.01.02
The magnet bore field shall have the following multipole content: Aperture radius from 131 mm to 131mm. Rref=43.23 Assumes 1/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.1
6.06.02.01.02
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.2
6.06.02.01.02
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.3
6.06.02.01.02
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.4
6.06.02.01.02
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.5
6.06.02.01.02
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.6
6.06.02.01.02
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.7
6.06.02.01.02
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.8
6.06.02.01.02
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.9
6.06.02.01.02
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.10
6.06.02.01.02
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.11
6.06.02.01.02
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.12
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.13
6.06.02.01.02
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.14
6.06.02.01.02
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.15
6.06.02.01.02
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.3.3.16
6.06.02.01.02
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.4
6.06.02.01.02
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.4.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.1
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.2
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.3
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.4
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.5
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.6
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.7
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.8
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.9
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.10
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.11
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.12
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.13
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.14
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.15
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.4.3.16
6.06.02.01.02
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PF.5
6.06.02.01.02
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.5.1
6.06.02.01.02
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6
6.06.02.01.02
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.1
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.2
6.06.02.01.02
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.3
6.06.02.01.02
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.4
6.06.02.01.02
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.5
6.06.02.01.02
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.6
6.06.02.01.02
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.7
6.06.02.01.02
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.6.8
6.06.02.01.02
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.7
6.06.02.01.02
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.7.1
6.06.02.01.02
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.7.2
6.06.02.01.02
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.7.3
6.06.02.01.02
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.8
6.06.02.01.02
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.8.1
6.06.02.01.02
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.8.2
6.06.02.01.02
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.8.3
6.06.02.01.02
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.8.4
6.06.02.01.02
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.9
6.06.02.01.02
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PF.10
6.06.02.01.02
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-MAG-HSR-Q2PR : IR Magnet Q2PR

P-IR-MAG-HSR-Q2PR.1.1
6.06.02.01.01
The magnet shall have a single function quadrupole with a normal field direction along the beam axis
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q2PR.1.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.1.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.1.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.1.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.1.6
6.06.02.01.01
The physical length of the magnet cold mass insert shall 4.28(m) minimum to 4.5(m) maximum. .
01/27/2025
Approved
FALSE

P-IR-MAG-HSR-Q2PR.1.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.1.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.1.9
6.06.02.01.01
The inner beam tube bore radius when warm, shall be greater than or equal to 53.95\54 (mm).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.1.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.1.11
6.06.02.01.01
The magnet shall be designed to fit within the following constraints, The cold mass must fit within the IR Rear main cryostat and comply with all inner IR geometry constraints
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.1.11.1
6.06.02.01.01
Magnet installation tolerances, Req...31 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) Req...31.1 The magnet cold install center displacment (wrt the nominal magnet center position) Displacement in X= 2(mm) Displacement in Y=2(mm) Displacement in Z=2(mm) Req...31.2 Magnet cold rotational alignment (wrt the nominal beam Axis) Rotational about X=+/- 0.2(mrad) Rotational about Y=+/- 0.2(mrad) Rotational about Z=+/- 0.2(mrad) Note: Z is along the beam axis
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.2.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.2.2
6.06.02.01.01
The maximum integrated gradient field required is 26.2222222222222 T, the magnet design shall include an additional 10% tuning margin giving a required field of28.8T.m
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.2.3
6.06.02.01.01
The magnet shall have a peak ramp rate of 0.039T/ms A/s and all HSR magnets must be able to follow the RHIC ramp profile [reference to appropriate RHIC ramp profile document here]
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.2.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.2.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.2.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.2.7
6.06.02.01.01
Magnetic field position and alignment within the magnet, Req....29 The field alignment within the magnet, position and alignment values shall be within the following tolerance limits: (Note: Z is along the beam axis) Req....29.1 Field center displacement (wrt the physical magnet center) Displacement in X= 0.2(mm) Displacement in Y= 0.2(mm) Displacement in Z=na Req...29.2 Field rotational alignment (wrt to the physical magnets primary axis X,Y,Z) Rotational about X=+/-0.2 (mrad) Rotational about Y=+/-0.2(mrad) Rotational about Z=+/-0.2(mrad)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.1
6.06.02.01.01
The harmonic reference radius Rr shall be 16(mm), centered at (0,0) mm. The field shall be measured at N energies Energy 1 =275 GeV, Rr=16(mm) Energy 2 =TBD GeV, Rr=16(mm) … Energy N=TBD GeV, Rr=16(mm) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.2
6.06.02.01.01
The field at the reference radius Bref shall be The reference field Bref for the different measurements shall be, B(@23GeV)=TBD(Tm) B(@41GeV)=TBD(Tm) B(@100GeV)=TBD(Tm) B(@275GeV)=TBD(Tm) .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3
6.06.02.01.01
The magnet bore field shall have the following multipole content: Aperture radius from 53.95 mm to 54mm. Rref=35.64 Assumes 2/3 max apperture .
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.1
6.06.02.01.01
-0.0001
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.2
6.06.02.01.01
Measurement 1: -2<b2<2, Measurement 2: -2<b2<2, Measurement 3: -2<b2<2, Measurement 4: -2<b2<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.3
6.06.02.01.01
Measurement 1: -2<b3<2, Measurement 2: -2<b3<2, Measurement 3: -2<b3<2, Measurement 4: -2<b3<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.4
6.06.02.01.01
Measurement 1: -2<b4<2, Measurement 2: -2<b4<2, Measurement 3: -2<b4<2, Measurement 4: -2<b4<3 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.5
6.06.02.01.01
Measurement 1: -2<b5<2, Measurement 2: -2<b5<2, Measurement 3: -2<b5<2, Measurement 4: -2<b5<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.6
6.06.02.01.01
Measurement 1: -2<b6<2, Measurement 2: -2<b6<2, Measurement 3: -2<b6<2, Measurement 4: -2<b6<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.7
6.06.02.01.01
Measurement 1: -2<b7<2, Measurement 2: -2<b7<2, Measurement 3: -2<b7<2, Measurement 4: -2<b7<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.8
6.06.02.01.01
Measurement 1: -2<b8<2, Measurement 2: -2<b8<2, Measurement 3: -2<b8<2, Measurement 4: -2<b8<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.9
6.06.02.01.01
Measurement 1: -2<b9<2, Measurement 2: -2<b9<2, Measurement 3: -2<b9<2, Measurement 4: -2<b9<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.10
6.06.02.01.01
Measurement 1: -2<b10<2, Measurement 2: -2<b10<2, Measurement 3: -2<b10<2, Measurement 4: -2<b10<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.11
6.06.02.01.01
Measurement 1: -2<b11<2, Measurement 2: -2<b11<2, Measurement 3: -2<b11<2, Measurement 4: -2<b11<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.12
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.13
6.06.02.01.01
Measurement 1: -2<b13<2, Measurement 2: -2<b13<2, Measurement 3: -2<b13<2, Measurement 4: -2<b13<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.14
6.06.02.01.01
Measurement 1: -2<b12<2, Measurement 2: -2<b12<2, Measurement 3: -2<b12<2, Measurement 4: -2<b12<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.15
6.06.02.01.01
Measurement 1: -2<b15<2, Measurement 2: -2<b15<2, Measurement 3: -2<b15<2, Measurement 4: -2<b15<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.3.3.16
6.06.02.01.01
Measurement 1: -2<b16<2, Measurement 2: -2<b16<2, Measurement 3: -2<b16<2, Measurement 4: -2<b16<2 (10^-4)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.4
6.06.02.01.01
The magnet cross-talk shall be constrained within a radius of 50(mm) of the ESR axis such that all harmonic multipoles average less than 10(µT)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.4.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.1
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.2
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.3
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.4
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.5
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.6
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.7
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.8
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.9
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.10
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.11
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.12
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.13
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.14
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.15
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.4.3.16
6.06.02.01.01
< Requirement Not Applicable >
01/28/2025
Not Applicable
FALSE

P-IR-MAG-HSR-Q2PR.5
6.06.02.01.01
The magnet cross talk shall be constrained such that, at its maximum energy, the magnetic cross-talk from the magnet to the axis of the ESR shall be less than 10(gauss)
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.5.1
6.06.02.01.01
The magnet shall be designed such that, at its maximum energy the magnet fringe field shall not be greater than <40(gauss) on the RCS beam line.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6
6.06.02.01.01
The magnet shall be designed to be cooled and sustained at its operational temperature utilizing the proposed EIC cryogenic system.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.1
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K)nominal operating conditions of superfluid helium (HeII) bath at 1.3(bar)and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.2
6.06.02.01.01
The magnet current leads shall be designed to be cooled and sustain operations at nominal operating conditions of helium (HeI) bath at 1.3(bar) and 4.5(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.3
6.06.02.01.01
he magnet shall be capable of removing a maximum total heat load of TBD(W) while maintaining nominal operating conditions under 1.3(bar) and 1.92(K).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.4
6.06.02.01.01
The magnet current leads cooling shall be capable of removing a maximum total heat load of TBD(W) at the cold end while maintaining ominal operating conditions under 1.3(bar) and 4.5(K), and vapor cooling flow of TBD(g/s) from 4.5(K) to 300(K)
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.5
6.06.02.01.01
The maximum differential internal pressure from the helium volume to the vacuum in the magnet structure shall be 10(bar).
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.6
6.06.02.01.01
The maximum atmospheric external pressure from the helium volume to the vacuum in the magnet structure shall be 1.03(bar).
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.7
6.06.02.01.01
The magnet shall be designed to remove the heat from the coil through a pressurized heat exchanger for all operational modes.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.6.8
6.06.02.01.01
The magnet shall be designed to handle a controlled cooldown with minimum of a 50K axial gradient.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.7
6.06.02.01.01
The magnet design shall have an appropriate quench protection system which also ensures all electromagnetically, thermally and cryogenically connected systems are not damaged in a quench event.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.7.1
6.06.02.01.01
The magnet shall be able to survive the thermal dynamics during cooldown and following a quench without degradation in its performance.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.7.2
6.06.02.01.01
After a thermal cycle to room temperature, the magnet SHOULD attain the nominal operating current with no quenches and SHALL attain the nominal operating current with no more than 3 quenches.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.7.3
6.06.02.01.01
The magnet shall not quench when ramping down within a time interval of 360(s) from full current.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.8
6.06.02.01.01
All electrical connection to the magnet for the main current leads, instrumentation, Voltage taps, Current taps shall meet the appropriate interface requirements specified for those connections.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.8.1
6.06.02.01.01
The magnet coils and quench protection heaters shall pass a hi-pot test at nominal operating conditions corresponding to Vtest = 2xPeak Voltage + 500 Volts.
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.8.2
6.06.02.01.01
The magnet shall be delivered with three redundant (3x2) quench detection voltage taps located on each magnet lead and at the electrical midpoint of the magnet circuit; and two (2) voltage taps for each internal splice. Each voltage tap used for critical quench detection shall have a redundant voltage tap
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.8.3
6.06.02.01.01
All SC magnet Splice resistances within the coil module or to the coil module SHALL be less than 1.0 nΩ at 1.9 K.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.8.4
6.06.02.01.01
The maximum operating current of the magnet shall be 13.5kA. Decided this is not relevant
01/27/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.9
6.06.02.01.01
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[20yrs*2cycles] thermal cycles, 120[20yrs*2cycles*3quenchesperthermal] quenches and 20000 [200operationaldays*20yrs*5power cycles per day] power cycles.
02/13/2025
In Process
FALSE

P-IR-MAG-HSR-Q2PR.10
6.06.02.01.01
All components must withstand a radiation dose of TBD MGy, or shall be approved by EIC for use in a specific location as shown in the “BNL Materials” List TBD
02/13/2025
In Process
FALSE

IR-PROT : Interaction Region Protection

F-IR-PROT.1
6.06.03
The IR protection and beam abort shall be included in the ESR and HSR protection and beam abort systems (see ESR&HSR requirement documents [5.9] and [5.10]).
02/13/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.01
6.06.03.01
The diameter shall be 90 mm
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.02
6.06.03.01
The length shall be 2 m
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.03
6.06.03.01
The materials shall be C / Al / Cu
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.04
6.06.03.01
The energy deposited during abort shall be 320 kJ
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.05
6.06.03.01
The frequency of thermal cycle shall be 1 hour
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.06
6.06.03.01
The window thickness shall be tbd mm
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-DUMP_BLK.07
6.06.03.01
The window material shall be tbd
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.01
6.06.03.01
The Length shall be 50 m
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.02
6.06.03.01
The Internal diameter shall be 90 mm
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.03
6.06.03.01
The Temperature sensors shall be yes
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.04
6.06.03.01
The BPMs shall be 4
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.05
6.06.03.01
The Correctors shall be 4
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.06
6.06.03.01
The Corrector PS shall be tbd
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.07
6.06.03.01
The power supply accuracy shall be tbd
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-INST_BP.08
6.06.03.01
The Cooling / pumping shall be yes
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.01
6.06.03.01
The deflection shall be 2 mrad
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.02
6.06.03.01
The length shall be 1.2 m
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.03
6.06.03.01
The power supply shall be 1600 A
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.04
6.06.03.01
The power supply accuracy shall be TBD
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.05
6.06.03.01
The Y-chamber aperture shall be 36 mm
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-LAMBERT.06
6.06.03.01
May need to add additional window requirements for other leg of Lambertson magnet TBD
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.01
6.06.03.01
The gradient shall be 17 T/m
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.02
6.06.03.01
The power supply shall be 1600 A
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.03
6.06.03.01
The power supply accuracy shall be TBD
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.04
6.06.03.01
The length shall be 70 cm
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK-QUAD.05
6.06.03.01
The aperture radius shall be 50 mm
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.01
6.06.03.01
The number of kickers shall be 6
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.02
6.06.03.01
The Rise time shall be 900 ns
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.03
6.06.03.01
The Fall time shall be NA sec
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.04
6.06.03.01
The flat top time shall be 13 us
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.05
6.06.03.01
The waveshape shall be trap
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.06
6.06.03.01
The painting shall be vertical
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.07
6.06.03.01
The maximum field shall be 0.12 T
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.08
6.06.03.01
The total deflection shall be 16 mrad
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.09
6.06.03.01
The maximum current shall be TBD
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.10
6.06.03.01
The maximum voltage shall be TBD
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.11
6.06.03.01
The inductance with cable shall be TBD (uH)
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.12
6.06.03.01
The Max rep rate shall be 100 kV/pC
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.13
6.06.03.01
The flat top repeatability shall be NA Hz
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.14
6.06.03.01
The flatness of flat top/pulse form shall be 1 %
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.16
6.06.03.01
The cooling type shall be w (W,A)
01/27/2025
In Process
FALSE

P-ESR-MPS-EXT_KICK.15
6.06.03.01
The beam abort kicker shall be tbd %
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.01
6.06.03.01
The location (Section) shall be tbd
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.02
6.06.03.01
The dimension in W shall be tbd (ft)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.03
6.06.03.01
The dimension in L shall be tbd (ft)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.04
6.06.03.01
The dimension in H shall be tbd (ft)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.05
6.06.03.01
The num magnets shall be tbd
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.06
6.06.03.01
The mag gap shall be tbd (cm)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.07
6.06.03.01
The rise time shall be tbd
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.08
6.06.03.01
The fall time shall be tbd
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.09
6.06.03.01
The flat top time shall be tbd (sq ft)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.10
6.06.03.01
The waveshape shall be tbd (sq ft)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.11
6.06.03.01
The flat top repeatability shall be tbd (sec)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.12
6.06.03.01
The uniformity of the flattop shall be tbd (sec)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.13
6.06.03.01
The deflecting Angle shall be tbd (sec)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.14
6.06.03.01
The rep rate spec shall be tbd
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.15
6.06.03.01
The output voltage Spec shall be tbd (Hz)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.16
6.06.03.01
The output current spec shall be tbd (Volts)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.17
6.06.03.01
The inductance with cable shall be tbd (Amps)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_BUMP.18
6.06.03.01
The cooling type shall be tbd
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.01
6.06.03.01
The number of kickers shall be 5
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.02
6.06.03.01
The Rise time shall be 900 ns
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.03
6.06.03.01
The Fall time shall be NA sec
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.04
6.06.03.01
The flat top time shall be 13 us
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.05
6.06.03.01
The waveshape shall be trap
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.06
6.06.03.01
The painting shall be horizontal
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.07
6.06.03.01
The maximum field shall be TBD T
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.08
6.06.03.01
The total deflection shall be TBD mrad
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.09
6.06.03.01
The maximum current shall be 20 kA
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.10
6.06.03.01
The maximum voltage shall be 33.3 kV
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.11
6.06.03.01
The inductance with cable shall be TBD (uH)
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.12
6.06.03.01
The Max rep rate shall be 1 pulse per minut
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.13
6.06.03.01
The flat top repeatability shall be +10 / -20 %
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.14
6.06.03.01
The flatness of flat top/pulse form shall be 0.45 mod
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.15
6.06.03.01
Beam abort kicker tbd
01/27/2025
In Process
FALSE

P-HSR-MPS-ABORT_KICK.16
6.06.03.01
The cooling type shall be water
01/27/2025
In Process
FALSE

P-HSR-MPS-DUMP_BLK.01
6.06.03.01
The dimensions shall be 40 x 10 mm
01/27/2025
In Process
FALSE

P-HSR-MPS-DUMP_BLK.02
6.06.03.01
The length shall be 0.5 / 2.6 / 2 m
01/27/2025
In Process
FALSE

P-HSR-MPS-DUMP_BLK.03
6.06.03.01
The materials shall be C-C / Gr/ SS
01/27/2025
In Process
FALSE

P-HSR-MPS-DUMP_BLK.04
6.06.03.01
The energy deposited during abort shall be 3.5 MJ
01/27/2025
In Process
FALSE

P-HSR-MPS-DUMP_BLK.05
6.06.03.01
The frequency of thermal cycle shall be 1 hour
01/27/2025
In Process
FALSE

P-HSR-MPS-DUMP_BLK.06
6.06.03.01
The window thickness shall be tbd mm
01/27/2025
In Process
FALSE

P-HSR-MPS-DUMP_BLK.07
6.06.03.01
The window material shall be tbd tbd
01/27/2025
In Process
FALSE

P-IR-VAC.8
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-1 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

F-IR-PROT.2
6.06.03
The collimation required for the IR shall be included in the ESR and HSR collimation systems (see ESR&HSR requirement documents [5.9] and [5.10]).
02/13/2025
In Process
FALSE

P-IR-VAC.8
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-1 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

IR-PS : IR Magnet Power Supply

IR-PS-B0APF : IR Magnet Power Supply B0APF

IR-PS-B0PF : IR Magnet Power Supply B0PF

IR-PS-B1APF : IR Magnet Power Supply B1APF

IR-PS-B1PF : IR Magnet Power Supply B1PF

IR-PS-B1PR : IR Magnet Power Supply B1PR

IR-PS-B2AER : IR Magnet Power Supply B2AER

IR-PS-B2BER : IR Magnet Power Supply B2BER

IR-PS-B2PF : IR Magnet Power Supply B2PF

IR-PS-B2PR : IR Magnet Power Supply B2PR

IR-PS-D1EF : IR Magnet Power Supply D1EF

IR-PS-H5_QS3 : IR Magnet Power Supply H5_QS3

IR-PS-H5_TV3 : IR Magnet Power Supply H5_TV3

IR-PS-LONG_S : IR Magnet Power Supply LONG_S

IR-PS-Q0EF : IR Magnet Power Supply Q0EF

IR-PS-Q1APF : IR Magnet Power Supply Q1APF

IR-PS-Q1APR : IR Magnet Power Supply Q1APR

IR-PS-Q1BPF : IR Magnet Power Supply Q1BPF

IR-PS-Q1BPR : IR Magnet Power Supply Q1BPR

IR-PS-Q1EF : IR Magnet Power Supply Q1EF

IR-PS-Q1ER : IR Magnet Power Supply Q1ER

IR-PS-Q2EF : IR Magnet Power Supply Q2EF

IR-PS-Q2ER : IR Magnet Power Supply Q2ER

IR-PS-Q2PF : IR Magnet Power Supply Q2PF

IR-PS-Q2PR : IR Magnet Power Supply Q2PR

IR-PS-Q3EF : IR Magnet Power Supply Q3EF

IR-PS-Q3ER : IR Magnet Power Supply Q3ER

IR-PS-Q3PF : IR Magnet Power Supply Q3PF

IR-PS-Q3PR : IR Magnet Power Supply Q3PR

IR-PS-SHORT_S : IR Magnet Power Supply SHORT_S

IR-RF : Interaction Region RF

IR-RF-CRAB_ESR : IR ESR CRAB RF System

IR-RF-CRAB_ESR-FUNDAMENTAL_MODE : IR ESR CRAB RF Fundamental Mode

IR-RF-CRAB_ESR_SRFCM : IR ESR CRAB RF Super Conducting Cryogenic Module (SCFCM)

IR-RF-CRAB_ESR_SRFCM-FUNDAMENTAL_MODE : IR ESR CRAB RF SCFCM Fundamental Mode

IR-RF-CRAB_HSR : IR HSR CRAB RF System

IR-RF-CRAB_HSR-2ND_HARMONIC_MODE : IR HSR CRAB RF 2nd Harmonic Mode

IR-RF-CRAB_HSR-FUNDAMENTAL_MODE : IR HSR CRAB RF Fundamental Mode

IR-RF-CRAB_HSR_SRFCM : IR HSR CRAB RF Super Conducting Cryogenic Module (SCFCM)

IR-RF-CRAB_HSR_SRFCM-FUNDAMENTAL_MODE : IR HSR CRAB RF SCFCM Fundamental Mode

IR-VAC : Interaction Region Vacuum

F-IR-VAC.1
6.06.02
The IR beam pipe shall be of minimal size around the IP to have maximum acceptance for an experimental mu-vertex tracker
01/27/2025
In Process
FALSE

P-IR-VAC.2
6.06.02.04
Any special aperture requirements or aperture information shall be provided by and\or approved by physics.
01/27/2025
Approved
FALSE

F-IR-VAC.2
6.06.02
The IR vacuum systems shall be designed to minimize any direct and backscattered synchrotron radiation at the detector to a level consistent with required detector measurements.
01/27/2025
In Process
FALSE

F-IR-VAC.3
6.06.02
The IR central vacuum chamber shall be designed to minimize secondary particle production.
01/27/2025
In Process
FALSE

P-IR-VAC.5
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-2 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.6
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-1 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.7
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR common vac shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.11
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-3 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.10
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-3 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.12
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-2 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

F-IR-VAC.4
6.06.02
The IR Vacuum chamber impedance shall be sufficiently small as to prevent any undesirable beam dynamic issues and adverse heating of vacuum components.
01/27/2025
In Process
FALSE

P-IR-VAC.1
6.06.02.04
The vacuum system global impedance shall be less than the impedance budget as provided by accelerator physics.
01/27/2025
Approved
FALSE

P-IR-VAC.12
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-2 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

F-IR-VAC.5
6.06.02
The IR vacuum pressure around the IP from at least -15m to +15m shall be low enough to ensure the beam gas background for the experiment is adequate after the system has been properly conditioned.
01/27/2025
In Process
FALSE

P-IR-VAC.5
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-2 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.6
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-1 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.7
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR common vac shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.11
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-3 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.10
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-3 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.12
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-2 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.3
6.06.02.04
The magnetic permeability for vacuum equipment shall be approved by beam physics.
01/27/2025
Approved
FALSE

P-IR-VAC.4
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Rear vac-3 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.9
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-2 shall be <5x10-9 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.13
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Rear vac-1 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.14
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Forward vac-1 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.15
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Forward vac-2 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.16
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR HSR Forward vac-3 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE

P-IR-VAC.17
6.06.02.04
The vacuum stability (upper pressure limit) shall be TBD Torr
01/27/2025
In Process
FALSE

P-IR-VAC.18
6.06.02.04
On 15 m (or one vacuum section) on each side of the SRF cavities shall be processed to class ISO 5.
01/27/2025
Approved
FALSE

P-IR-VAC.19
6.06.02.04
Beam current is an input for the interlock system. The threshold level shall be identified and adjusted during the system commissioning.
01/27/2025
Reviewed
FALSE

P-IR-VAC.20
6.06.02.04
The central beam pipe temperature limit (warm gas bakeout) shall be +110 C.
01/27/2025
Approved
FALSE

P-IR-VAC.21
6.06.02.04
The inner beam pipe ( +/- 1.5 m around IP) shall have a gold coating of 5 um.
01/27/2025
Approved
FALSE

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

P-IR-VAC.8
6.06.02.04
The average vacuum level (after conditioning for >1000Ah) in the IR ESR Forward vac-1 shall be <1x10-10 Torr
01/27/2025
Reviewed
FALSE