Status Report EXTRA COSTS AND ADDITIONAL RESOURCES CERN, 29 January - PowerPoint PPT Presentation

HIE-ISOLDE Project: Status Report EXTRA COSTS AND ADDITIONAL RESOURCES CERN, 29 January 2013 Yacine Kadi

Phase 1 Updated Schedule 2013 2014 2015 J F M A M J J A S O N D J F M A M J J A S O N D J F M A M J J A S O N D LS1 & shutdowns Refurbishment of the old ALEPH Cryo-Plant Compressor installation and commissioning Cryo-plant installation (cold box and transfer line) Cryo-plant commissioning HIE-ISOLDE SC Linac Cryomodule 1 Tests (SM18) Cryomodule 2 Tests (SM18) Cryomodule 1&2 installation (ISOLDE) Cryomodule 1&2 Commissioning (ISOLDE) HIE-ISOLDE High-Energy Beam Transfer Lines Power converters installation & Commissioning Magnet installation & Commissioning BI installation & Commissioning (HW) Vacuum installation & Commissioning Beam commissioning (phase1) Start of the Physics at 5.5 MeV/u 2016 2017 2018 J F M A M J J A S O N D J F M A M J J A S O N D J F M A M J J A S O N D LS2 & shutdowns Physics at 5.5 MeV/u Initially planned to start in May 2015, the Physics Program at 5.5 MeV/u is now expected to start in October 2015. The above schedule is could be affected by unforeseen emergency activities that could arise during LS1. Reprioritization of phase 2 and 3 is unavoidable. 2

Cost: External Funding Phase 1 1.084.845 Expenses� � Linac+HEBT� Salaries� (*)� R&D� Total� Procurement� 2007-2012� 604.000� 1.226.000� 2.023.837� 3.853.837� 2013-2015� 5.000.000� 100.000� 0� 5.100.000� � 5.604.000� 1.326.000� 2.023.837� 8.953.837� � (*) to be considered additional expenses on salaries of 6.0 MCHF (2011-2014) already covered by EU-FP7-ITN Marie-Curie program: CATHI The missing income of 0.7 MCHF should be covered through new applications:  Belgian Big Science Project #2 through K.U. Leuven => Phase-2  Local funds from Sweden through U. Lund  COSA EU-FP7-ITN Innovative Doctoral Program 24 man x years 3

CERN Extra Costs Phase 1 Department Group Material Personnel R&D Total RF 150.000 190.000 150.000 490.000 BE ABP 200.000 239.500 70.000 509.500 350.000 429.500 220.000 999.500 CV 727.000 727.000 EL 44.000 44.000 HDO 100.000 100.000 EN HE 120.000 120.000 ICE 200.000 200.000 STI 301.000 301.000 1.172.000 320.000 0 1.492.000 GS SEM 400.000 400.000 CRG -2.023.000 (*) -2.023.000 MPE 100.000 100.000 MSC1 250.000 250.000 TE MSC2 133.000 133.000 VSC1 310.000 150.000 460.000 VSC2 260.000 173.000 433.000 -1.380.000 583.000 150.000 -647.000 (*) re-use of ALEPH cryo-plant 542.000 1.332.500 370.000 2.244.500 4

Missing Resources for Phase 1 For the CRYOMODULE: HR needs (8 man years) All of these needs (the 5 man years listed above) have been filled by redeploying personnel from other projects. However, a short-term (3 year LD contract) position is requested to ensure the continuation of the experienced Mechanical Engineer currently assigned to the HIE-ISOLDE project beyond July 2013. 5

Missing Resources for Phase 1 For the CRYOGENIC PLANT: HR Needs (2.3 man years)  HR needs are estimated to a total of 8.3 man years for the period (2013-2015). The need is for Engineers and technicians to be involved in “ Cold box reinstallation ” and “ Compressor station reinstallation ” mainly in the activities of: Project engineer, Mechanics/drawing, Process control, Instrumentation and Commissioning.  All of these needs but, 2.3 man years, have been secured for the project. For the Beam Instrumentation: HR Needs (2 man years)  HR needs are estimated to a total of 2 man years during the period (2013-2015). Two electronic engineers are needed for a period of 12 months to develop: (i) the front-end analogue electronics for the Faraday Cup (in intensity and profile measurement modes) and the Silicon detector and (ii) the motion control for the beam diagnostic boxes.  All of these needs will be filled by redeploying personnel from other projects. 6

CRYOMODULE: Status  General Priorities   Start procurement processes for components  Conceptual design 100% requiring long delays Detailed design 60%  Validate last active components solutions  Detailed drawings 20%  Instrumentation consideration  Done In progress Pending Active components Mechanical & cryogenics Assembly procedures redaction, Quench protection system, interfaces current leads RF interfaces Alignment Concept and procedures Adjustment mechanism design Detailed design, drawings of supporting Jacks procurement frame assembly Vacuum Concept, interfaces, instru. and Interfaces drawings Procurement and contract follow-up product identification Vacuum vessel drawings Cryogenics Concept, procedures, Aleph fridge compatibility study Response to cryogenics stop scenario. reservoir drawings, Thermal shield specifications Thermal shield drawings instrumentation list redaction Survey Concept, interfaces Targets definition Detailed design of supports Assembly Concept, general assembly Clean room procurement Tooling detailed design sequence Detailed procedure redaction Instrumentation Requirements - Selection, procurement, installation Safety Risk identification, calculations Products selection Procurement, installation Contracts follow-up - Adjustment mechanism, helium Vacuum vessel, thermal shield, supporting reservoir frame, bellows, instrumentation, tooling 7

Cavity development work in 2012 Jan-12 Feb-12 Mar-12 Apr-12 May-12 Coating system Design and procurement of SS cavity support Resistive heating inside the antenna Coatings Q1_9 Q1_10 Q2_6 Q3_1 RF tests Q2_5 Q1_9 Q2_5 LNL coupler+ In Q1_10 Q1_10 CERN coup Q2_6 Jun-12 Jul-12 Aug-12 Sep-12 Oct-12 Nov-12 Coating system Copper screens, IR lamps, 8 kW Power supply 12 kW PS Coatings Q1_11 QP1_2 Q3_2 Q2_7 Q3_3 RF tests Q3_1 Cryo SM18 downQ3_1 + Magnet Q1_11 QP1_2 Q2_7 Q3_3 CRYO OK 37 Tests RF 12 3.083 Weeks/test 2Weeks/cavity demonstrated

Cavity Test Results Parameter/feature HIE ISOLDE cavity ALPI cavity INFN-LNL CERN Substrate SUBU Tumbling, EP then SUBU treatment Rinsing water 5-6 bar 100 bar pressure Bake out 670ᵒC 600ᵒC temperature (~ sputtering T) (>sputtering T) 450ᵒC  690ᵒC 300  500 ᵒC Sputtering temperature 3 10 -1 mbar 2 10 -1 mbar Sputtering pressure Number of layers 12 12-20 layers 2 kW  11 kW Power 5 kW (for 2.5 times smaller surface) Cathode voltage 1 kV 1 kV Bias voltage -80 V -120 V Total electrical 46 kWh 15 kWh energy Auxiliary electrode 2 cm diameter, bias 4 cm diameter (2/3 of inner potential conductor), rounded, bias potential Film minimum To be measured 2 µm thickness Sputtering gas Argon Argon Venting gas N 2 N 2 vacuum joint Viton CF

Comparison of HIE ISOLDE and ALPI QWRs The slope of our best cavities is independent on Q 0 and close to the best ALPI cavities Data from Legnaro vertical test (rounded substrates) courtesy of Anna Porcellato Q2_7 ranks 9th out of 13 in terms of Q 0 and initial slope Looks as if we were entering the distribution of the LNL cavities from below

Summary Most recommendations of the previous cavity review were implemented:  Reconsidered mechanical tolerances  4 prototypes available since summer 2012  Focused on dc bias sputtering  Dummy copper cavity available and used for sample studies in autumn 2012  Increasing cavity turnaround up to 2 weeks  Setting up a backup test place in Orsay  Continuing work on cavity ancillaries (tuning plate, coupler, RF line) Cavity performance improved significantly in one year:  1 MV/m @ 10 W in September 2011  5 MV/m @ 10 W in October 2012 Remaining issues for cavity performance  Film thinness on cavity top (high current region)  Bad film quality on tip of the inner conductor (peak E  field emission)  Stability  Statistics 11

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