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Nick Walker – SA meeting KEK 19.01.06 Treaty Points and Costing Guidance Nick Walker 1 st System Area Managers Meeting KEK – 19.01.2006
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Nick Walker – SA meeting KEK 19.01.06 Introduction Review the system boundaries outlined in this document Iterate and discuss agree on boundaries Discuss costing guidelines
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Nick Walker – SA meeting KEK 19.01.06 The Baseline Machine (500GeV) not to scale ~30 km e+ undulator @ 150 GeV (~1.2km) x2 R = 955m E = 5 GeV RTML ~1.6km ML ~10km (G = 31.5MV/m) 20mr 2mr BDS 5km
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Nick Walker – SA meeting KEK 19.01.06 RDR Matrix
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Nick Walker – SA meeting KEK 19.01.06 RDR Matrix System Areas Geographical breakdown of machine Primary responsibility for design and ‘ownership of costs’
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Nick Walker – SA meeting KEK 19.01.06 RDR Matrix Technical Systems Your ‘Engineering & Cost’ resources Responsible for engineering designing and costing of components in area systems A point of contact will be identified for each tech. area to each system area
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Nick Walker – SA meeting KEK 19.01.06 RDR Matrix Global Systems Responsible for the more global aspects of the machine which do not specifically relate to a single system area or technical group
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Nick Walker – SA meeting KEK 19.01.06 RDR Matrix Reloaded System Areas Tech. GroupsGlobal Groups design iteration cost push-back optimisation ‘overhead, contingency & redundancy’ checks costs
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Nick Walker – SA meeting KEK 19.01.06 Boundaries (Treaty Points) e- source e+ source DR RTML Main Linac BDS
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Nick Walker – SA meeting KEK 19.01.06 Boundaries (Treaty Points) e- source e+ source DR RTML Main Linac BDS Polarised electron gun (including laser system) capture/bunching system/pre- acceleration acceleration to 5 GeV spin rotation collimation up to (but not including) DR injection e- gun on positron system also included (up to dipole before 5 GeV linac)
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Nick Walker – SA meeting KEK 19.01.06 Boundaries (Treaty Points) e- source e+ source DR RTML Main Linac BDS All beamline components integrated with main ring vacuum system Associated ancillary systems (power supplies, RF, etc.) For stacked e+ ring, includes bunch combining/separation systems
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Nick Walker – SA meeting KEK 19.01.06 Boundaries (Treaty Points) e- source e+ source DR RTML Main Linac BDS Begins after DR extraction system and compensating bends Ends at entrance to first Main Linac cryomodule
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Nick Walker – SA meeting KEK 19.01.06 Boundaries (Treaty Points) e- source e+ source DR RTML Main Linac BDS Begins with first cryomodule after RTML Ends with last cryomodule before BDS In addition to basic RF units, includes any warm insertions (diagnostics stations, MPS systems etc.) problem area: e+ source in e- linac
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Nick Walker – SA meeting KEK 19.01.06 Boundaries (Treaty Points) e- source e+ source DR RTML Main Linac BDS Begins at exit of last cryomodule in Main Linac Ends at (and includes) main beam dumps
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Nick Walker – SA meeting KEK 19.01.06 Boundaries (Treaty Points) e- source e+ source DR RTML Main Linac BDS Target system dump Capture system pre-acceleration (long) transfer line 5 GeV injection linac up to DR injection undulator system e- bypass system pre-undulator collimation (MPS) pre-undulator FEX (MPS) clear responsibility of e+ source group could be considered part of ML
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Nick Walker – SA meeting KEK 19.01.06 Costing Guidelines The RDR is not a complete Technical/Engineering Design a design made to the level required to support a reliable cost estimate Good common sense has to be applied to level of engineering/costing Main Linac, CF&S cost drivers: pay attention to details Injectors, DRs, BDS not cost drivers: can make looser cost estimates
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Nick Walker – SA meeting KEK 19.01.06 Example: US study note: US accounting full-cost model CF&S included for each system
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Nick Walker – SA meeting KEK 19.01.06 Example: US study note: US accounting full-cost model CF&S included for each system Orthogonal view (technical groups)
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Nick Walker – SA meeting KEK 19.01.06 Cost Drivers: SCRF tech. bottom-up cost detailed cost estimate based on existing information (TDR, USLCOS) new input from industrial studies (US?) (XFEL TDR cost update) May have largest uncertainty International agreed upon model for costing SCRF tech. needed
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Nick Walker – SA meeting KEK 19.01.06 Cost Drivers: CF&S Civil engineering requirements must be well specified tunnel diameters, lengths # of shafts, access etc PPS zones shielding requirements for hi rad areas etc. surface building requirements (space!) scaling from existing machines or similar engineering projects useful site dependencies may exist Must have a clear picture of what you want to go into a tunnel, shaft, hall or building
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Nick Walker – SA meeting KEK 19.01.06 Cost Drivers: CF&S Cooling & AC power requirements input needed from AS on magnets, power supplies, electronic racks, klystrons/modulators etc. some can be scaled from existing infrastructures Special case: cryogenics look to LHC…
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Nick Walker – SA meeting KEK 19.01.06 Non Cost Drivers Careful: taken together still ¼-1/3 of total cost magnets: rough estimates of IV parameters, cooling requirements needed based on field specs from AS No need to perform detailed magnet design ~30% best guess ~2% TPC (warm) vacuum systems: rough design; scale from existing machines controls (inc. software), instrumentation… rough counts, scale from existing experience
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Nick Walker – SA meeting KEK 19.01.06 An Example: example taken from USLCOS
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Nick Walker – SA meeting KEK 19.01.06 WBS [PBS?] WBS is needed to define the level of cost detail required First-pass at WBS (level of detail) can be made from experience Will need to iterate as costs begin to arrive Our first job! Define the WBS
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Nick Walker – SA meeting KEK 19.01.06 WBS using SLAC tool
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