Status of the 12 GeV Upgrade and the SHMS R&D and PED Projects. Antje Bruell Hall C meeting, Jan Page 1

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Status of the 12 GeV Upgrade and the SHMS R&D and PED Projects Antje Bruell Hall C meeting, Jan 26 2007 Page 1

Outline Status of the 12 GeV Upgrade New management structure Time lines Latest cost profile R&D and design work in Previous R&D work R&D plans for this year Conceptual design work Future design plans for Hall C Summary Page 2

JLab 12 GeV Project Organization Lab Director C. Leemann Executive Resource Committee Chair: L. Cardman 12 GeV Science Advisory Committee Chair: A. Thomas 12 GeV Exp. Equip. Advisory Committee COO Project Office Chief Scientist Chair: TBD M. Dallas C. Rode A. Lung R. Ent W. Funk A. Thomas Support Safety Manager R. May Integration Engineer S. Suhring 12 GeV Accel Advisory Committee Chair: TBD Accelerator Physics Civil L. Harwood W. Brooks R. Yasky Beam Transport Hall A Accel/CHL M. Wiseman J. LeRose C. Whitlatch Cryomodules J. Preble Hall B L. Elouadrhiri Hall D S. Chandra Extraction M. Spata Power Systems Hall C A. Bruell W. Merz Hall D I&C/Safety Systems K. White Cryogenics E. Aschenauer E. Smith Change Control Board D. Arenius Page 3

DOE Critical Decision Schedule Lehman-05 (July 2005) CD-1 (Feb 2006) Lehman-06 (April 2006) CD-0 Mission Need 2QFY04 (A) 2QFY04 (A) 2QFY04 (A) CD-1 Preliminary Baseline Range 4QFY05 2QFY06(A) 2QFY06(A) CD-2A Long Lead CD-3A Construction 2QFY07 4QFY06 3QFY07 NA CD-2B Performance Baseline 4QFY07 4QFY07 4QFY07 CD-3B Start of Construction 3QFY08 4QFY08 4QFY08 CD-4 Start of Operations 1QFY13 1QFY14 1QFY15 Long term schedule (CD-4) delayed 2 years since Lehman-05 ; 1 year since CD-1 Approval Page 4

12 GeV Funding Profile Page 5

12 GeV UPGRADE SCHEDULE November 2006 Page 6

12 GeV Funding 9-JAN-07 FY04-06 FY07 Plan FY07 To Date* % FY07 OPC 7000 2500 945 38% TEC 500 7000 2175** 31% TPC 7500 9500 3120 33% * Continuing resolution through 15-FEB-07 ** Additional funds expected 31-JAN-07 Page 7

FY07 Continuing Resolution Impacts Currently still on track for CD-2 on 30-SEP-07 Have slowed down design procurements until 30-JAN-07 and 15-FEB-07 funding arrival Expect full PB FY07 funding rate through 15-FEB-07 If we do not get the $7M PED funds, we will request permission to re-program 6 GeV operations funds to 12 GeV If we get 85% of FY07 PED funding, we can still hold CD-2 in FY07. If we do not, CD-2 would slip > 1Q and, per DOE guidance, construction start would be delayed from FY09 to FY10 This would increase TPC by > $10M due to escalation, etc. Page 8

The latest (final) SHMS design detectors SHMS Minimum angle of 5.5 degree Relatively large solid angle D Q3 Q2 Q1 HB 3 degree horizontal bend No slider!!! Page 9

Front region of SHMS & HMS target chamber SHMS HB Q1 Q2 HMS Page 10

Summary of FY05/06 R&D R&D plan focused on identified risk components Moderate risk: superconducting magnets Low risk: Hall C detector components Summary of FY05/06 R&D tasks 1) Test of SSC superconductor 2) Prototype of burnout proof current lead 3) Feasibility study of combined function magnet 4) Examination of the engineering & technical feasibility and the cost impact of increasing the Q1 gradient 5) Build and test a prototype of the quartz detector 6) Develop alternative calorimeter configurations Page 11

Status of R&D on Q1 Examination of the engineering & technical feasibility and the cost impact of a) increasing the Q1 gradient to 8.9 T/m (presently 8 T/m) and lengthening the Q1 cold mass by 15% (FEA analysis to confirm adequate engineering margins) b) using the existing SSC cable for the Q1 coil (paper study on coil performance and winding feasibility) (addresses risks in cost, schedule and performance) Status: Just finished (Sep 20, 2006) Work done by Scientific Magnetics, spin-off of Oxford (builders of the original Q1 magnets) Independent stress and force analysis at Jlab No problems! Page 12

Hall C R&D Plan - FY07 R&D on new horizontal bend magnet Reshaping and testing of existing SSC cable SSC cable keystoned during fabrication for SSC magnets HB and Q1 magnet coils are rectangular cross section coils requiring flat cable Re-rolled cable needs to be tested for degradation in performance Status: Sufficient amount of cable for both Q1 and HB magnet shipped to company in New England for reshaping (unrolling) Unrolling done last week full report expected within the next two weeks testing of samples of unrolled cable to be done at Brookhaven as soon as possible possibly try to test all cable necessary for building these magnets this year! Page 13

Hall C R&D Plan - FY07 R&D on new horizontal bend magnet Reshaping and testing of existing SSC cable SSC cable keystoned during fabrication for SSC magnets HB and Q1 magnet coils are rectangular cross section coils requiring flat cable Re-rolled cable needs to be tested for degradation in performance Status: Sufficient amount of cable for both Q1 and HB magnet shipped to company in New England for reshaping (unrolling) Unrolling done last week full report expected within the next two weeks testing of samples of unrolled cable to be done at Brookhaven as soon as possible possibly try to test all cable necessary for building these magnets this year! Page 14

Hall C R&D Plan - FY07 R&D on new horizontal bend magnet (cont) Simulate and measure the radiation heat expected at the position of the horizontal bend magnet Simulate expected radiation heat (see Tanja s talk) Build test device and measure for various angles and targets at 6 GeV (originally planned for April/May 2007, schedule now very uncertain!) Compare to simulation and extrapolate to 11 GeV Design, build and test a scale cross section model of the horizontal bend SC coil Test heat removal and insulation properties Measure life expectancy of heat removal & insulation systems and force constraint systems under cryogenic conditions Possibly serve as a radiation degradation test bed Page 15

Hall C R&D Plan - FY07 R&D on new horizontal bend magnet Simulate the radiation heat expected at the position of the horizontal bend magnet Input: exact geometry of SHMS (in progress) Page 16

Hall C R&D Plan - FY07 Next steps: measure the radiation heat at the position of the horizontal bend magnet Build test device and measure for various angles and targets at 6 GeV Compare to simulation, improve simulation for A>1 targets and extrapolate to 11 GeV design, build and test a scale cross section model of the horizontal bend SC coil Test heat removal and insulation properties Measure life expectancy of heat removal & insulation systems and force constraint systems under cryogenic conditions Possibly serve as a radiation degradation test bed Page 17

Conduction Cooled Coil Cooling Options Helium Bathed Titanium inner wall Midplane Midplane

Temperature due to 10W flux Temperature K Maximum temperature: 6.6 K Critical temperature: 7.75 K Surface area 1.23x10-3 m^2 Heat flux applied to a larger area

Status of R&D on detectors Study of quartz detector First very preliminary tests done last summer Use experience from Qweak and build prototype for in beam test this spring Study of alternative shower counter configurations See talk by Arthur Wait for decision on HERMES calorimeter! Page 20

Status of conceptual design 1) spectrometer design optimized (simpler magnets, larger acceptance, larger scattering angle) 2) conceptual design for magnets in new SHMS design existing 3) stress and force analysis for Q1 cold iron magnet completed 4) tolerance analysis for new SHMS design completed (recommendation #26 of 2005 Lehman review) Presently ongoing (contracts awarded at very end of FY06): 1) conceptual design of cold mass and force collar for new dipole 2) conceptual design of cold mass and force collar for Q2/Q3 3) conceptual design of cold mass and force restraint for horizontal bend magnet 4) quench analysis of Q2/Q3 quadrupoles and dipole (new software tools) 5) trial winding of the Q1 coil using SSC cable Page 21

Status of conceptual design stress and force analysis for Q1 cold iron magnet Status: completed All forces within margins Exception: total tie bolt force ( ~3x10^5 N) Stress in Tie bolt about 60% above HMS design possible solutions: a) larger tie bolts b) > 1 tie bolt per sector Page 22

Resolution Studies New design maintains excellent resolution Resolution still dominated by multiple scattering Large tolerances in field inhomogeneities acceptable! 500 400 300 200 100 0.5-2 -1.5-1 -0.5 0 0.5 1 1.5 2 2. -100-200 -300 n=1 n=3 n=5 n=7 n=9 Linear (n=3) Example of higher harmonics caused by construction errors (dipole at 45000 Gauss) -400 quad = -214.66x 500 dx (cm) Page 23

Hall C PED Plan FY07 and FY08 1) Prepare reference design for Q1, Q2/Q3 and dipole magnet Use combination of inhouse engineering and designing labor plus contracts to outside companies Resource loaded schedule available FY07 PED plan focused on preparation for CD-2 review All PED tasks expected to be completed by early summer 2008 To do: magnetic analysis (lot s of progress (Paul, Steve), additional help by Fermilab engineer?) design of superconductor (in progress) design of helium vessel and nitrogen shield (preliminary drawings done by Paulo) design of energy dump and quench protection system (under study) (design of control system, copy of new HMS system, almost trivial ) design of vacuum vessel design of magnet support and stand preliminary design of cryostat (just started) Page 24

Hall C PED Plan FY07 and FY08 2) Prepare reference design for horizontal bend magnet Expected to be done in collaboration with Michigan State University FY07 PED plan focused towards CD-2 requirements All PED tasks expected to be finished by summer 2008 first contract in place MoU to be completed and signed as soon as possible! Page 25

Hall C PED Plan FY07 and FY08 3) Prepare reference design for carriage and shield house \ Contract to update preliminary drawings for new SHMS design just awarded to Alion Science and Technology (new company of Roy Vaughn, contractor of both the HMS carriage/shield house design and the original SHMS carriage/shield house design) results and new cost estimate expected by April/May 2007 CAD drawings provided by Mike Fowler more than sufficient for CD-2 requirements! Page 26

Hall C PED Plan FY07 and FY08 3) Prepare design for detector package \ Almost all detectors are copies of existing detectors Present goal (simple): collect existing drawings Successful for Wire Chambers (Hampton) Scintillator Hosdoscopes (Dave Mack) Aerogel Cerenkov (UVa, Donal Day) new design for quartz detector (R&D project, Qweak) MRI for wire chambers, hodoscopes and detector frame just submitted to NSF missing: noble gas Cerenkov (Argonne, UVa?) shower counter: awaiting decision on HERMES calorimeter blocks (plus PMTs and high voltage) from NIKHEF (end of February) results and new cost estimate expected by April/May 2007 more than sufficient for CD-2 requirements! Page 27

Hall C PED Plan FY07 and FY08 4) Prepare design for additional infrastructure Includes: New beam line (more or less complete, cost update needed) New scattering chamber (almost done - new chamber for SANE) Cabling (to be updated by Bill Vulcan) Cryogenic system/connections to existing system DAQ and Slow control (to be updated with Steve Wood) Vacuum system Moeller and Compton polarimeter (Dave Gaskell) \ new cost estimate needed by April/May 2007 Page 28

SUMMARY New project management structure for 12 GeV in place and effective (my personal view)! The R&D and PED part of the 12 GEV project is in principal on track to achieve CD-2 by the end of this fiscal year ( however contingent on further budget decisions/desasters ) The R&D necessary for Hall C is concentrated on the new HB magnet and the design of the calorimeter and the new quartz detector (needs 5 GeV beam for in beam testing at some time!) PED work for Hall C is concentrated on the various magnets and the carriage/shield house and is progressing reasonably well (BUT needs to hire 2 additional designers!) A lot of work remains to be done to achieve CD-2 AND CD-3! Page 29