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LCLS Overview John N. Galayda, SLAC May 21, 2003

This overview provides information on the LCLS project, including its capabilities, spectral coverage, and estimated cost and schedule. It also includes details on the project organization, personnel, and work breakdown structure.

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LCLS Overview John N. Galayda, SLAC May 21, 2003

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  1. LCLS OverviewJohn N. Galayda, SLACMay 21, 2003 • Project Description • Project Status Update • Long-Lead Procurements John N. Galayda, SLAC

  2. The World’s First Hard X-ray Laser John N. Galayda, SLAC

  3. Capabilities Spectral coverage: 0.15-1.5 nm John N. Galayda, SLAC

  4. Capabilities Spectral coverage: 0.15-1.5 nm To 0.5 nm in 3rd harmonic Peak Brightness: 1033 Photons/pulse: 1012 Average Brightness: 3 x 1022 Pulse duration: <230 fsec Pulse repetition rate: 120 Hz John N. Galayda, SLAC

  5. Capabilities Spectral coverage: 0.15-1.5 nm To 0.5 nm in 3rd harmonic Peak Brightness: 1033 Photons/pulse: 1012 Average Brightness: 3 x 1022 Pulse duration: <230 fsec Pulse repetition rate: 120 Hz Upgrade – more bunches/pulse John N. Galayda, SLAC

  6. SLAC Linac Undulator Hall Two Chicanes for bunchcompression FFTB Tunnel Near Hall Far Hall Linac Coherent Light Source Project Description John N. Galayda, SLAC

  7. Photon Beam Handling Systems • X-ray Transport, Optics and Diagnostics • Front end systems – attenuators, shutters, diagnostics • Optics – the prerequisites for LCLS experiments • X-ray endstation systems Hutches, Personnel Protection • Computer facilities for experiments • Laser for pump/probe experiments • Detectors matched to LCLS requirements • Essential Infrastructure for the LCLS Experimental Program Linac Coherent Light Source John N. Galayda, SLAC

  8. Estimated Cost, Schedule • $200M-$240M Total Estimated Cost range • $245M-$295M Total Project Cost range • Schedule: • FY2003 Authorization to begin engineering design • Emphasis on injector and undulator • FY2005 Long-lead purchases for injector, undulator • FY2006 Construction begins • September 2008 Construction complete John N. Galayda, SLAC

  9. Since the April 2002 DOE Review • Acquisition Execution Plan Approved 10/2002 • Preliminary Project Execution Plan Approved 9/2002 • Critical Decision 1 Approved 10/2002 • Guidance for Funding Profile Updated 1/2003 • BES 20-year Roadmap Review 2/2003 • Environmental Assessment Approved 3/2003 • Authorization to spend PED funds 3/2003 John N. Galayda, SLAC

  10. LCLS Organization • Chief Engineer – Mark Reichanadter • US CMS Project Engineer • Joins SLAC June 2003 • LLNL-LCLS Project Director - Richard M. Bionta • LCLS-ANL Project Director – Stephen V. Milton • LEUTL FEL accelerator research program at ANL-APS John N. Galayda, SLAC

  11. LCLS Organization Chart John N. Galayda, SLAC

  12. SLAC LCLS Personnel – FY2003 Linac Endstation Systems Conventional Facilities Injector David Dowell Ron Akre Lynn Bentson Dan Blankenship Paul Bolton Richard F. Boyce Alex Brachmann Catherine Carr Steve Gierman Alan Hill Wayne Linebarger Cecile Limborg Brendan Murphy Mario Ortega Mike Palrang John Schmerge Paul Stephens Nancy Yu Eric L. Bong Nick Braughton Roger Carr Wesley Craddock Paul Emma Leif Eriksson Patrick Krejcik Greg Pizzo John Weisend Jim Welch Jerry Hastings John Arthur Roman Tatchyn David Seanz Amy Sze-Cheung Wang John N. Galayda, SLAC

  13. Schedule Proposed at April 2002 Review • Three-year construction schedule, FY2005 start • Long-Lead Procurements October 2003 • Project Start October 2004 • Injector Beam to Linac June 2006 • Linac Beam to BC-2 [FEL] April 2007 • Project Completion September 2007 John N. Galayda, SLAC

  14. Revised Schedule based on Guidance of 2002 DOE • Long-Lead Procurements in October 2004 • Injector, Linac • Undulators • Construction Start October 2005 • Start FEL commissioning January 2008 • Project Completion September 2008 John N. Galayda, SLAC

  15. 2002 FY2001 2003 FY2002 FY2003 2004 2005 FY2004 2006 FY2005 FY2006 FY2008 FY2009 FY2007 Schedule CD-0 CD-1 CD-2b CD-3b CD-2a CD-3a Critical Decision 0 – Mission Need June 13, 2001 Critical Decision 1 – Preliminary Baseline Range October 16, 2002 Start Project Engineering Design October 2002 Critical Decision 2a – Long-Lead Procurement Budget May 2003 Critical Decision 2b – Performance Baseline April 2004 Critical Decision 3a – Start Long-Lead Procurements August 2004 Fund Long-Lead Procurements October 2004 Critical Decision 3b – Start Construction August 2005 Fund Construction October 2005 Construction Complete End of FY2008 John N. Galayda, SLAC

  16. LCLS Work Breakdown Structure John N. Galayda, SLAC

  17. LCLS Project Work Breakdown Structure John N. Galayda, SLAC

  18. Model for Project Funding $ 227.4 TEC including Spares, Magnet Measurement $- 2.5 Spares ____________________________ $ 224.9 TEC including Magnet Measurement $- 2.6 Magnet Measurement ______ $ 222.3 John N. Galayda, SLAC

  19. John N. Galayda, SLAC

  20. Guidance -January 2003 Baseline will be set at CD-2b, April 2004 John N. Galayda, SLAC

  21. Guidance - January 2003 CD-1 in 2002 TPC includes 2002 R&D funds John N. Galayda, SLAC

  22. John N. Galayda, SLAC

  23. Long Lead Procurements, FY2005 - Injector • The LCLS Injector • Laser and Laser Room • Main Mechanical Systems • Early integration with SLAC Linac • Laser Systems Assembly in FY2005 John N. Galayda, SLAC

  24. Long-Lead Procurements, FY2005 - Linac • Selected Linac Systems • Superconducting Wiggler • X-band RF system • Chicane Magnets John N. Galayda, SLAC

  25. Long-Lead Procurements, FY2005 - Undulator Systems • Undulator Hardware • Magnet Blocks • Magnet Poles • Strongback • Undulator Measurement System • Final “shimming” of magnets at SLAC • Complete Delivery of Undulators by June 2007 John N. Galayda, SLAC

  26. FY2005 Long Lead Procurements ($K, as spent) 28% Contingency (67% contingency on Superconducting wiggler & spare) To be reimbursed to TEC when Special Spares Funds are allocated. John N. Galayda, SLAC

  27. Long Lead Procurement Rationale- Mitigation of Schedule Risk • Injector • Must run smoothly for FEL commissioning • Develop repertoire of current pulse options for FEL commissioning • Undulator • Two-year delivery schedule • Support early start of FEL commissioning • Undulator Measurement Lab • Develop SLAC expertise in time to accept production undulators John N. Galayda, SLAC

  28. Long Lead Procurement Rationale- Mitigation of Schedule Risk • X-band Structure/Klystron/Modulator/LLRF • NLC collaboration is best source- no large spares inventory on site • Early test of SLAC modulator/x-band klystron combination • Early achievement of necessary phase stability • Chicane Magnets • Bunch Compressor 1 (BC1) identical to Injector Dogleg 1 (DL1) • BC2 design easy to accommodate with FY2005 PED funds • Superconducting Wiggler • Minimize in-house design workload • Allow ample time to accommodate slippage in delivery schedule John N. Galayda, SLAC

  29. Long Lead Procurements – Technical Risk Assessment • Injector Linac hardware is well within state of the art • Existing SLAC hardware designs meet most needs • Undulator Prototype meets LCLS specification • Design permits assembly by non-experts • Undulator Measurement System – proven at APS • Superconducting Wiggler well within state of the art • Several similar devices worldwide • X-band power, gradient requirements much less stringent than NLC requirement John N. Galayda, SLAC

  30. Long-Lead Procurements – Cost Risk Assessment • CD-3A for Long-lead procurements follows CD-2 for project • Overall project budget baseline will be reviewed/accepted before long-lead procurements are authorized • Addition of magnet measurement facility to scope • Offset by expected savings in undulator procurement • Increased estimate(contingency) for superconducting wiggler • That’s life • Reimbursement from Special Process Spares account 2007 John N. Galayda, SLAC

  31. Long-Lead Procurements • Cost and Technical Risks are low • Important to the Early Start of Commissioning • Important to the Timely Completion of the Project John N. Galayda, SLAC

  32. Sub-Picosecond Pulse Source • Chicane Commissioned Winter 2002 • Bunch compression studies • Bunch Length Measurement • Wake field investigation • Test of short-bunch diagnostics • Control of pulse timing • First Light on Monochromator 16 May 2003 • X-ray experiments • X-ray pulse length measurement • Timing control of linac pulse with respect to pump laser • Focused SPPS beam may be used for damage studies, validation of coded John N. Galayda, SLAC

  33. LLNL PED activities Low-Z Refractive optics tests-February March 2003 6.6 6677 5008 Depth mm 3338 1669 0 1.5 m fl 670 um dia Be Lens 0 40 80 120 160 200 240 280 316 Radius, mm John N. Galayda, SLAC

  34. 50 ps RTL FFTB 9 ps 0.4 ps <100 fs SLAC Linac Add 12-meter chicane compressor in linac at 1/3-point (9 GeV) 20-50 GeV 1 GeV Existing bends compress to <100 fsec 30 kA 80 fsec FWHM 28 GeV ~1 Å Damping Ring (ge 30 mm) Compress to 80 fsec in 3 stages 1.5% John N. Galayda, SLAC

  35. 20-Year BES Facilities Roadmap Workshop February 22-24, 2003 Doubletree Hotel and Executive Meeting Center 1750 Rockville Pike Rockville, MD 20852 • Saturday and Sunday Facility Presentations • Sunday Night and Monday Report Writing John N. Galayda, SLAC

  36. Linac Coherent Light Source • Essential for exploring future science using intense femtosecond coherent X-ray beams • DoE Critical Decision 0 and 1 have been approved Recommend continued strong support John N. Galayda, SLAC

  37. LCLS II and “Greenfield” XFEL • XFEL opens up new scientific horizons • 20 year vision for full-fledged XFEL-based User-facilities. • technical challenges include e-gun, detector, e-beam stability, etc. • LCLS progress towards XFEL feasibility is critical R&D on XFEL must proceed with emphasis on elucidating future scientific opportunities. John N. Galayda, SLAC

  38. UCLA LLNL LCLS R&D Collaboration FEL Theory, FEL Experiments, Accelerator R&D, Gun Development, Undulator R&D John N. Galayda, SLAC

  39. UCLA LLNL • Collaborative research agreements with • TESLA XFEL Lab – Bunch Compression, X-ray Optics • INFN Frascati SPARC FEL project- Laser & Gun R&D John N. Galayda, SLAC

  40. End of Presentation John N. Galayda, SLAC

  41. Contingency - Incremental Spares funds become available in Fy2007 John N. Galayda, SLAC

  42. John N. Galayda, SLAC

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  44. Contingency - Cumulative John N. Galayda, SLAC

  45. John N. Galayda, SLAC

  46. April 2002 DOE Review - $FY2002 John N. Galayda, SLAC

  47. LCLS Construction Milestones John N. Galayda, SLAC

  48. John N. Galayda, SLAC

  49. FEE Fast Valve Collimators Attenuators Masks FEE Diagnostics Vacuum Transport System Controls Hall A Mirror System Hall A Diagnostics Experimental Optics Commissioning Diagnostics Vacuum Transport System Controls Tunnel Vacuum Transport System Controls Hall B Monochromator System Hall B Diagnostics Pulse Split/Delay System Experimental Tanks Vacuum Transport System Controls X-Ray Optics, Transport, and Diagnostics Scope John N. Galayda, SLAC

  50. Sub-Picosecond Pulse Source • Chicane Commissioned Winter 2002 • Bunch compression studies • Bunch Length Measurement • Wake field investigation • Test of short-bunch diagnostics • Control of pulse timing • X-ray experiments • X-ray pulse length measurement • Timing control of linac pulse with respect to pump laser John N. Galayda, SLAC

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