1 brookhaven science associates storage ring - conventional facilities interfaces erik johnson,...
TRANSCRIPT
1 BROOKHAVEN SCIENCE ASSOCIATES
Storage Ring - Conventional Facilities Interfaces
Erik Johnson, Accelerator Systems Interface Manager
Accelerator Systems Advisory Committee Meeting
July 17-18, 2008
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Storage Ring to Conventional Facilities?
Louis Henri Sullivan
Architect(1856 – 1924)
Form ever follows function
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NSLS-II : Form following function
A-301, 80% Title II
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And how it got that way…..
9 June 2008 Coordination Meeting
9 June 2008 Coordination Meeting
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Overview of SR-CF Interfaces
• Identify Interfaces• Specifications for the storage ring set building
parameters and interfaces• Some examples
• Ratchet wall coordination• Process Utilities• Storage Ring Openings• Coordination with CF Design (80% Title II review)• Conventional Facilities Functional Requirements
• Where you can find interface information
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Example Conventional Facilities Coordination
Storage Ring Ratchet Wall Specification• ASD, CFD, ESH and XFD all interested stakeholders• Iterative development of requirements with
stakeholders• Document agreements and specifications• Coordination with A/E (HDR) and CFD to implement
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Technical Stakeholders
ESH• Tunnel is first and foremost a radiation enclosure• Relationship of ring with enclosure impacts on shielding performance
Accelerator Systems• Tunnel interacts with (constrains) storage ring configuration• Provides platform for mounting of equipment supporting operation of the accelerator
Experimental Facilities• Interface between machine and user beamline• Ratchet wall interacts with (constrains) beamline configuration
Conventional Facilities• Tunnel is substantial portion of construction activity• Design interacts with (constrains) other building systems
29 January 2008 Interface Meeting
29 January 2008 Interface Meeting
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Ratchet Wall Design Documents
ESH documents• Bulk Shielding Requirements for Final Design of NSLS-II
Accelerator Enclosures, Job & Casey, 2008 Jan 25• Final Design Parameters and Beam Loss Assumptions for
Shielding Calculations of NSLS-II Accelerator Enclosures, Job & Casey, 2008 Jan 25
• Shield vs distance 1.XLS (translation of shielding requirements for ratchet wall design by PK Job)
Engineering documents• Drawing SR-DG-1003-1-15-08
29 January 2008 Interface Meeting
29 January 2008 Interface Meeting
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Ratchet Wall Specification
• See dwg for layout details• Normal concrete walls except injection area (HD from 28B
to 30B)• Ratchet walls 1.37 m thick• Source to outside wall distances –
• Source Wall face CL to Inboard• Low Beta ID 26.7 m 500 mm• 3PW (low beta) 26.2 m 800 mm• Bend (low beta) 25.7 m 722 mm• High Beta ID 28.4 m 500 mm• 3PW (high beta)24.9 m 800 mm• Bend (high beta) 24.4 m 728 mm
29 January 2008 Interface Meeting
29 January 2008 Interface Meeting
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Ratchet Wall ApertureNot yet specified but consider variations• Variability in lattice design
• Change of 200 mm in dipoles shifted low beta inboard 16 mm, high beta outboard 5mm, make ‘budget’ of 20 mm
• Concrete placement• Nominal specification is variability of 25 mm for vertical lines
• Decker distortion (offset 5 mm outboard)• Canting (consider cant dipole to dipole, 1.75 mrad)
• Outboard line at wall 64 mm outside of CL• Inboard line at wall 35 mm inside of CL
• Extracted fan (nominally 3 mrad)• About 75 to 80 mm width at wall• EF specifies 8” diameter pipe (200 mm full aperture)
Outboard: 20+25+64+100+ 209 mm (say 8 1/4”)Inboard: 20+25+35+100=180 mm (say 7 1/8”)Propose 16” clear opening, 8.5” to outboard, 7.5” to inboardFull width shelf inside for lead 250 mm thick
29 January 2008 Interface Meeting
29 January 2008 Interface Meeting
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High beta front end
Schematic, but suggests about 1.5 meters could be appropriated from front end
Would have impact on FOE layout and ratchet wall doors
29 January 2008 Interface Meeting
29 January 2008 Interface Meeting
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Revised Ratchet Wall Specification
• See dwg for layout details• Normal concrete walls except injection area (HD from 28B
to 30B)• Ratchet walls >1.37 m thick• Source to outside wall distances –
Source Wall face CL to Inboard• Low Beta ID 25.5 m 330 mm• 3PW (low beta) 25.0 m 716 mm• Bend (low beta) 24.5 m 643 mm• High Beta ID 26.7 m 330 mm• 3PW (high beta)23.7 m 696 mm• Bend (high beta) 23.2 m 626 mm
6 February 2008 Interface Meeting
6 February 2008 Interface Meeting
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Document Ratchet Wall Interface
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80% Title II Drawing A-401
High Beta distance from
6 Feb meeting: 26.7 m
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Process Utilities RAM
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NSLS-II Process Utility LoadsRevision 1
Injector•Linac•Booster•BRF•xprt lines
SR Inst•Diag & Cntl•Vacuum•Interlocks•IDs
SR PS•Magnet PS•PS Cntls
SR Magnets
Al
PCHW
HVAC
CHW
Expt’lInstr’t•Absorbers
Expt’lInstr’t•Controls•Equipment•Acc. Loads
SR RFCryo
SR VacSystem•Absorbers•Chamber
SR RF•Controls•Klystrons•Loads
PW
Cable Loss
~ 1 MW transfers with electron beamStays in SR RF in an upset condition
2,275
598
1,740
2,596671
kVA Average AC Power
112
970 30580
613
1,160
35
80
518151161
1,640
102 1825,029
8,753 kW
2,507
1,217
1128300
573
Pump heatkWkW Average Load
58
179
336
300
573
418
SR
SR RF
Injector
TWRInjector•Linac•Booster•BRF•xprt lines
SR Inst•Diag & Cntl•Vacuum•Interlocks•IDs
SR PS•Magnet PS•PS Cntls
SR Magnets
Al
PCHW
HVAC
CHW
Expt’lInstr’t•Absorbers
Expt’lInstr’t•Controls•Equipment•Acc. Loads
SR RFCryo
SR VacSystem•Absorbers•Chamber
SR RF•Controls•Klystrons•Loads
PW
Cable Loss
~ 1 MW transfers with electron beamStays in SR RF in an upset condition
2,275
598
1,740
2,596671
kVA Average AC Power
112
970 30580
613
1,160
35
80
518151161
1,640
102 1825,029
8,753 kW
2,507
1,217
1128300
573
Pump heatkWkW Average Load
58
179
336
300
573
418
SR
SR RF
Injector Injector•Linac•Booster•BRF•xprt lines
SR Inst•Diag & Cntl•Vacuum•Interlocks•IDs
SR PS•Magnet PS•PS Cntls
SR Magnets
Al
PCHW
HVAC
CHWCHWCHW
Expt’lInstr’t•Absorbers
Expt’lInstr’t•Controls•Equipment•Acc. Loads
SR RFCryo
SR VacSystem•Absorbers•Chamber
SR RF•Controls•Klystrons•Loads
PW
Cable Loss
~ 1 MW transfers with electron beamStays in SR RF in an upset condition
2,275
598
1,740
2,596671
kVA Average AC PowerkVA Average AC Power
112
970 30580
613
1,160
35
80
518151161
1,640
102 1825,029
8,753 kW
2,507
1,217
5,029
8,753 kW
2,507
1,217
1128300
573
Pump heatkW Pump heatkWkW Average LoadkW Average Load
58
179
336
300
573
418
SR
SR RF
Injector
TWRTWRTWR
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Gaseous Nitrogen System
CFD Scope
LOB 3
SB3
LOB 2
SB2
LOB 1
SB1
gN2LOB 5
SB5
SR Tunnel
LOB 4
SB4
Inj Cryo
RF
ASD Scope
Tunnel manifold: 8 taps/cell typical
x6
Port APort B
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Storage Ring typical single cell
Port APort B
Use Frequency ComponentsSeldom BM Photon ShutterSeldom Slow Gate ValveIntermittent Photon ShutterSeldom Fast Gate ValveIntermittent Safety Shutter
Use Frequency ComponentsIntermittent Front EndSeldom Purge gas sourceSeldom ID Isolation valveFrequent Beamline supply
Beamlines Nominal use 0.4 cfm each2/cell, 12/pentant
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Storage Ring Tunnel Openings
Example Openings
50% Title II Drawing, A-101K
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Storage Ring Tunnel Openings
http://groups.nsls2.bnl.gov/acceleratorsystems/interface/Lists/SR Openings
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Conduit layout
A-type conduit
LT Electrical; George Ganetis
CD-type conduit
A
B
D
B
120 total connecting Storage ring tunnel and mezzanine
A
C
D
C
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Review of 80% title II - InjectorNo Element Comment
1 Emergency exit labryinth Add wing onto shield wall2 Booster to SR transport line Shift wall as per Timur Shaftan, Opening 1 meter square centered on
transport line through the wall3 Booster service area to booster Cable tray labyrinth under staircase4 Booster service area to storage ring Extra set of conduits (4 4 inch diameter)
5 Booster service area to booster Add a 4 foot wide by 18" high opening at the top of the wall. Brick it up: Future expansion of cable tray system
6 Storage ring laberyinth area Laberyinth leg needs to be 3 meters long (see A421) as per PK7 Storage ring laberyinth area Door B103.4 in this area duplicate number. Should be B103.1?8 Control Room Move door B111 to upper right near door B103.19 Booster service area to booster Two RF coax penetrations
10 Laberyinth B105 Needs to have a door added to the drawing11 Offset conduit in injection straight Provide cable path with extra conduit from storage ring mezzanine to the
storage ring injection straight12 Cable tray path at end of B108
Labryinth12" high by 18" wide cut at the ceiling to go between labryinth and booster enclosure
13 Klystron waveguide 4 waveguide penetrations from the klystron gallery to the linac enclosure
14 12 inch tray to gun Route 12 inch tray from klystron gallery through B-109 labryinth for gun
15 Cable tray Klystron to Linac Three openings 12" by 18" for 12" cable trays from klystron gallery to linac enclosure. One at gun end, one near the middle, and one at the high energy end of the linac.
16 Booster RF controls conduit 2 groups of 2-4" dia offset conduits to provide control and instrument cable connections to the booster RF cavities
17 LB-Transport line opening Opening is 24" square centered on transport line through the wall at the end of the linac enclosure
18 Injector service building to storage ring mezzanine cable path
Provide a cable pathway from the electronics in the injector service area through to the cable tray system of the storage ring mezzanine.
19 Booster tunnel outlets 4- 208 outlets, 2-480 outlets as indicated20 Klystron gallery convenience outlets 110 convenience outlets on wall separating klystrons and linac
21 Linac enclosure convenience outlets 110 convenience outlets on wall separating klystrons and linac
22 B103.4 door (to klystron gallery) Make this a double door. Shift as necessary to clear door that is needed for booster labyrinth (B105)
23 Emergency exit labryinth Awning or cover or something to make the door weather tight and the booster tunnel dry.
24 B107 door to linac Weather proofing (awining?) over external shielding blocks to keep the linac enclosure weather tight
A-101K
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Comments on 80% Title II Submission
http://groups.nsls2.bnl.gov/acceleratorsystems/interface/Consolidation CF Design Comments for ASD
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A/E collection of CF functional requirements
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Conventional Facilities Requirements
http://groups.nsls2.bnl.gov/acceleratorsystems/interface/Lists/Conventional Facilities Requirements
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SR Tunnel Functional Requirements
http://groups.nsls2.bnl.gov/acceleratorsystems/interface/Lists/Conventional Facilities Requirements
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Accelerator Systems SharePoint
http://groups.nsls2.bnl.gov/acceleratorsystems
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ASD Interface development SharePoint
http://groups.nsls2.bnl.gov/acceleratorsystems/interface
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Summary of SR-CF Interfaces
• Identify Interfaces• Active and ongoing effort to identify and refine interface definitions
• Some example interfaces• Illustrated some of the AS-CF interface definition to date
• Where you can find interface information• SharePoint site references (Libraries, Lists)• RSI Documentation (BNL and HDR)
• Look ahead• Continuing elaboration of interface specifications as design evolves• Improved delivery and accessibility of interface information