The Cost & Schedule to Accomplish the Transition Proposed SLAC Controls Upgrade December 1, 2010 Ray Larsen 1 Outline • Cost Model Strategy – COTS plus limited In-House development – Industry support - physics applications modules • Resources – Hardware-Software-Firmware engineering; ARD xTCA program support; M&S • Budgets – Controls; RF • Schedule Development – MTCA infrastructure, IOC & Timing, Controls subsystems, RF Subsystem SLAC Linac Controls Upgrade Proposal 12-01-10 2 Telecom Industry Strategy • Platform developed as open Telecom standard by group of strong competitors – Major change in philosophy of all company products proprietary and non-interchangeable • Why? Better for company and customer to have products guaranteed to work together • Company focuses resources on unique payload products, shorter time to market, lower development costs SLAC Linac Controls Upgrade Proposal 12-01-10 3 Physics Cost Model Strategy • Base our standard on new platform adding improved I/O, timing features for physics – Benefit from industry technical assistance and building prototypes at their expense to launch, quicker learning curve for users – Physics package attracting Telecom, Industrial Control manufacturers – With market growth should benefit from multiple vendors and price competition SLAC Linac Controls Upgrade Proposal 12-01-10 4 Hardware Design Time/Cost Savings • Dual Module Simplifies Design – Develop COTS solutions for complex AMCs – We plan to use no in-house AMC designs – Leverage COTS designs to multiple applications with minimum RTM engineering time/cost – Complex AMCs cost 1-2 Py @$300K/Yr SLAC Linac Controls Upgrade Proposal 12-01-10 5 Adapting Controls Subsystems • Port existing front end interfaces onto RTMs • 4 & 10 Ch Fast ADCs w/DAC RTM adapters: 1. Stripline BPMs (2 types) 2. Toroids (2 types, Linac & Beam Containment), Profile Monitor Gated ADC (Same as above) 3. RF Feedback • 3-Industry Pack RTM Adapters: 4. 5. 6. 7. Profile Monitor Beam Length (BLEN) Vacuum gauge controller interface Vac-ion pump controller interface Wire scanner movers (Hytek) • PMC Card AMC Adapter 8. Fast Frame grabber for Profile Monitor SLAC Linac Controls Upgrade Proposal 12-01-10 6 Budget Cost Analysis • Resource Cost Estimates – All tasks detailed – Resources identified – Discussed details w/ resources for estimates – Summed resources vs. draft schedule – Performed similar exercise for RF (already approved AIP) – Totaled all manpower costs vs. time (24 mo.) SLAC Linac Controls Upgrade Proposal 12-01-10 7 Hardware Cost Estimates • MTCA Infrastructure – COTS based on actual quotes or vendor budgetary quotes – Includes crate, power modules, Hub Controller, Processor IOC, Timing Module – Timing module not yet a commercial item but base cost on similar commercial products – Assumed infrastructure partly shared w/ RF AIP – First articles procured on ARD ILC R&D budget. SLAC Linac Controls Upgrade Proposal 12-01-10 8 Hardware Costs 2 • Applications Modules – AMCs: ADC-DAC, 3-IP, PMC adapter • ADC-DAC: Vendor quotes, DESY target (Strück); Vadatech quote pending • 3-IP: quote in hand (TEWS) • PMC: Quotes pending (Vadatech,TEWS) – US 2nd sources: • Buying first articles to specification, compatible RTM – Timing • Source is Stockholm U., working to develop vendors SLAC Linac Controls Upgrade Proposal 12-01-10 9 Controls Upgrade AIP R&D Manpower 7.0 6.0 Oct 5.0 Nov Dec 4.0 Jan 3.0 Feb 2.0 Mar 1.0 Apr 0.0 Manpower FY11-12 May Jun Controls Total MW SLAC Linac Controls Upgrade Proposal 12-01-10 10 RF Upgrade AIP Manpower RF 12 Mo. through Q1-12 SLAC Linac Controls Upgrade Proposal 12-01-10 11 Controls Total, Infrastructure & RTM MW SLAC Linac Controls Upgrade Proposal 12-01-10 12 Controls AIP Budget Summary SLAC Linac Controls Upgrade Proposal 12-01-10 13 Budget by FY for 1 RF Station (RA) Funded In 2009 TOTAL Costed In FY 2009 ED&I (Eng., design & inspection) Costed In FY 2010 Costed In FY2011 Funding 3.1 522 399 924 B&H (Buildings & hardware) 0 105 45 150 Contingency 0 0 305 305 1.3 243 184 428 4 870 933 1,807 Indirect Allocation TOTALS 14 system MPS Timing RF network corrector incl PS LGPS control LGPS solid state subbooster BCS readout BCS full system profile monitors toroids wire scanners modulator PLC+ upgrade racks vacuum CAMAC replacement vacuum rack mounted chassis PPS long haul cables crates temperatures etc option average LI11-20 LI11-20 LI21-30 LI21-30 probability NRE (k$) basic deluxe basic deluxe 0 200 200 0 0 0 608 608 608 608 0 2240 2240 2240 2240 0 820 820 50 50 0 608 608 0 0 0 432 432 0 0 0 0 864 0 0 0 0 1440 0 1440 0 50 50 50 50 750 0 750 0 750 150 320 320 0 320 100 80 80 0 0 0 0 0 0 0 0 0 5000 0 4000 0 1512 1512 1512 1512 0 150 150 150 150 100 0 432 0 144 0 0 0 0 0 2048 2048 0 0 1150 1150 1150 1150 300 300 300 300 total edi_factor nsector manmonth_cost indirect_rate_labor indirect_rate_MandS 5110 11670 20156 6060 12714 1.6 10 25 52% 9.40% SLAC Linac Controls Upgrade Proposal 12-01-10 Estimated 10Sector Cost T. Himel Assume LI11-20 Column costs Solid state subbooster required Modulator PLC not required BCS & Power Supplies Included RF Station Unit Cost = $28K 15 Infrastructure Work Detail INFRASTRUCTURE TASKS – CONTROLS + RF (ILC Standards Program) 1. 2. 3. Hardware Tasks Task Description Status Resources Crates 6 slot nonredundant Engineering development units Crates 12 slot fully redundant Production Units MCH Hub Switches Bring up crates in lab 2 units w/ Physics backplane in hand Q. Yang, SW Estimated FTE MW 0 Receive and test crates from different vendors Bring up on Physics backplane; evaluate Bring up with Linux OS, develop EPICS environment Receive Tx-Rx unit & bring up on Physics backplane; develop Rx commercial source 3 units on order from 2 vendors for delivery end November 3 units in hand; 1 to be delivered 1 unit on hand (NAT), 4 units due November (Adlink) Test with commercial ADC; develop timing & trigger application driver Q. Yang, SW 3 Q. Yang, SW 1 Q. Yang, SW 4 J. Dusatko, HW 12 Q. Yang, SW 12 4. Crate controllers (IOCs) 5. Timing Module (U Stockholm for XFEL) Total HW Total SW Total Infrastructure 12 20 32 MW SLAC Linac Controls Upgrade Proposal 12-01-10 16 RTM Work Detail CONTROLS & RF MTCA RTM TASKS 1. Generic AMC 4 Ch Fast ADC 16 bit 119 MSPS Model/Vendor VAMC511/ Vadatech port to Physics 2-wide Applications Stripline Beam Position Monitors (2 types) Toroid Beam Current Monitors (2 Types) Profile Monitor BLen gated ADC (GADC) RF feedback controller and RF interlock signals 2. 10 Ch fast ADC 16 bit 119 MSPS, 2 DAC Ch at 238 MSPS Vadatech converted VAMC511 or Struck ABA SIS8300 3. 3-Industry-Pack Adapter w/ RTM TEWS Model TAMCxxx Adapted to Physics Platform Profile Mon BLEN Actuate TEWS IPs Vacuum gauge readout; remote wakeup Vac-ion pump controller Wire scanners – movers- port xstg dsgn TEWS IPs Hytek IPs 4. PMC Adapter Total RTM TEWS, Vadatech Profile Monitor Existing designs ported Camera frame grabber to MTCA Adapter w/ Rear I/O RTM Model RTM-1 SMA Coax in Signal conditioning, filtering RTM-2 SMA Coax in Toroids & GADC RTM-2 Include gating feature RTM-3 Coax in SMA Connector adapter from RF down-mixer chassis RTM-4 Generic 3-IP High density I/O; Port SCSI, firmware; add IPMI RTM-4 Resource FTEs- MW 20 RTM-4 8 RTM-4 8 RTM-5 Port firmware, EPCS from VME, add IPMI, high bandwidth 16 20 4 4 (1st prototype cmplt.) 16 12 148 MW SLAC Linac Controls Upgrade Proposal 12-01-10 17 RF Subsystem Work Detail RF Subsystem Tasks 1. 2. Hardware Tasks RF clock generation & Down-converter chassis 3. Modulator-Klystron interlock protection unit & SLED Tuner Driver, Solenoid PS, SSSB interface System Firmware 4. System Software 5. Rack & cooling Description 3-board RF chassis with water cooled heat sink; generation low noise local oscillator for IF down mix; sample and DAC clocks Design, build standalone chassis with internal interlock FPGA; local display & controls options Develop firmware for RF system feedback Develop software for complete system incl. EPICS panels Develop sealed rack cooling system LCW heat exchanger inside existing rack Totals HW-FW Totals SW Total RF Subsystem 1. 2. 3. Notes Standard Type N cables in, Subminax out to ADC Rear Transition Module Resources R. Akre, HW, 0.25 B. Hong, HW, 0.75 New HW, 0.75 S. Geng SW, 0.5 Resources FTE MW 13 40 40 24 Adapt existing I/O cables to rear panel stand-alone chassis (solution in hand) J. Olsen, HW-FW, 0.6 S. Zheng, HW, 0.5 A. Young, HW, 0.1 30 25 6 Test board w/ ADCDAC supplied by SLAC L. Doolittle (LBNL contract) HW FW S. Geng, SW, 0.5 8.0 PCD Engr, HW 12 Investigate engineering & fab to specs by local company; field test 24 174 48 222 MW Assumptions: Following are Separate AIP Projects: Rack refurbishment including electrical Solenoid PS replacement Solid state sub-booster SLAC Linac Controls Upgrade Proposal 12-01-10 18 Upgrade Schedule Development • Three components – MTCA Infrastructure Support (ARD program) – RF Station Demo (Approved AIP in progress) – Control Station Demo (AIP Proposal) • Integrated draft schedule – Shows all relationships & milestones – Resource loading needs further work but first order matches available staff plus 3 new – Full Preliminary will be posted; top summary next slide LCLS RF Upgrade AIP Proposal 10/20/2010 19 Summary Schedule SLAC Linac Controls Upgrade Proposal 12-01-10 20 Conclusions • RF subsystem critical path – Low-noise component evaluations for best possible phase stability ~10fs – Firmware & software • Controls critical path – Hardware development of RTMs for 8 Apps – Firmware & software • Both schedules needs adjustment – Some early items shown are behind schedule SLAC Linac Controls Upgrade Proposal 12-01-10 21 Conclusions 2 • Resources & Budgets • RF: – Estimate 1 additional FTE HW, SW – Budget & resource analysis still in progress • Controls: – Estimate 2 additional FTEs at 1 HW, 1 SW – Included in proposed budget • Management – Needs to be in both budgets but is not yet SLAC Linac Controls Upgrade Proposal 12-01-10 22
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