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WP3: The Neutrino Factory Costing Status

WP3: The Neutrino Factory Costing Status. Ajit Kurup CERN Costing Workshop 8 th December 2011. Introduction. Progress since last workshop.

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WP3: The Neutrino Factory Costing Status

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  1. WP3: The Neutrino Factory Costing Status Ajit Kurup CERN Costing Workshop 8th December 2011

  2. Introduction • Progress since last workshop. • Go over the PBS and CFPs for each subsystem and outline the key pieces of information needed for the costing (input into spreadsheets for uploading to the Costing Tool), schematic drawings, etc. • Thanks to Neil Bliss and Norbert Collomb for their engineering input. • I will show some slides that Neil prepared. • Norbert will present work being done on the FFAG and decay rings. • Areas where we need additional support. • Future plan.

  3. Level 3 Breakdown Structure

  4. The Proton Driver • Ion source to the downstream face of the last magnet of the final focus. • The building housing the final focus is part of the TCD. Ancillary buildings and services for the final focus are included in the PD. • All transfer lines must be included (e.g. transfer line to the final focus.) • SPL + rings (Important for EUROnu) • R. Garobyand S. Gillardoni • ProjectX+ rings • K. Gollwitzer • RAL • J. Pozimski, J. Pasternak and J. Thomason

  5. Proton Driver Breakdown Structure

  6. The Target , Capture and Decay System • From the downstream face of the last magnet of the final focus to the downstream face of the last magnet of the last magnet of the decay section. • Must include space for the final focus and space for H&S for final focus but actual H&S are included in PD. • Solid target • R. Edgecock • Powder target • C. Densham • Liquid target (baseline design and main focus) • H. Kirk and K. MacDonald • Capture system • H. Kirk and K. MacDonald and B. Weggle • Decay section • C. Rogers

  7. Target, Capture and Decay Breakdown Structure

  8. The Muon Front-end • From the downstream face of the last magnet of the decay section to the downstream face of the last module of the cooling section. • Buncher, phase-rotator and cooling • G. Prior and C. Rogers

  9. Muon Front End Breakdown Structure

  10. Buncher Breakdown Structure

  11. Buncher • Buncher section total length 33m • 33 normal conducting RF cavities and 44 superconducting coils • Cavities organised in 13 groups, each group with the same RF frequency

  12. Phase-Rotator Breakdown Structure

  13. Phase Rotation • Phase Rotation section consists of 56 cells 0.75m in length • Total section length 42m • 56 normal conducting RF cavities and 56 superconducting coils • Cavities organised in 15 groups of the same RF frequency over range 230.2 – 202.3 MHz, gradient 12 MV/m. • Cavity and coil length 0.5m Two Cells

  14. Cooling Channel Breakdown Structure

  15. Cooling • Cooling section consists of 100 cells 0.75m in length • Total section length 75m • 100 normal conducting RF cavities and 100 superconducting coils • Cavities RF frequency 201.25 MHz, gradient 15 MV/m. • Cavity length 0.5m, Coil length 0.15m Be coated Two Cells

  16. The Muon Acceleration System • From the downstream face of the last module of the cooling section to the front face of the first magnet of the decay ring injection system. • Linac, RLA 1 and RLA 2 • A. Kurup • Transfer lines to the FFAG • J.S. Berg • FFAG • J.S. Berg and N. Bliss • μ+ μ- transfer lines to the decay rings • J.S. Berg

  17. Muon Acceleration Breakdown Structure

  18. Pre-linac and RLAs 244 MeV Pre-linac 900 MeV 202 m Beam enters both RLAs at the linac centre and exits at the right hand side. 4.5 passes in each RLA. 0.9 GeV 3.6 GeV RLA I 86 m 0.6 GeV/pass 3.6 GeV 3.6 GeV 12.6 GeV RLA II 255 m 2 GeV/pass

  19. Linac Breakdown Structure

  20. Pre-linac (244-900 MeV) µbeams 130 m 72 m 0 m 202 m 72 m 24 x 3m cryogenic modules 26 x 5m cryogenic modules 3000 mm 5000 mm 1.5 Tesla solenoid 2 Tesla solenoid Cavity R = 230 mm Gradient 15 MV/m

  21. Transfer Line Breakdown Structure

  22. RLA Breakdown Structure

  23. RLA Breakdown Structure

  24. RLA 1 Arc 1 and Arc 3 35 x quadrupoles 20 x 15° dipoles 18 x dipoles 4 x dipoles for vertical offset 37 quadrupoles 1.2 GeV 2 x 30° dipoles 2.4 GeV 300° 2 x 30° dipoles 1.2 GeV 2.4 GeV side view

  25. RLA 1 Arc 2 and Arc 4 1.8 GeV 3 GeV 3 GeV 1.8 GeV side view

  26. Extraction - Injection Lines 1 m 1.75 m

  27. Pre-Linac and RLA I to RLA II …Multistory configuration 244 MeV 3 GeV 900 MeV 1.8 GeV 1.2 GeV 2.4 GeV 3.6 GeV

  28. Transfer Line Breakdown Structure

  29. RLA 2 Breakdown Structure

  30. Transfer Line Breakdown Structure

  31. FFAG Breakdown Structure

  32. FFAG RF Source & Distribution

  33. FFAG to Decay Rings Transfer Line Breakdown Structure

  34. The Muon Decay Rings • Front face of the first magnet of the injection line through the whole ring, including all diagnostic/detector devices and the beam abort. • MDR 1 and MDR 2 • D. Kelliher and N. Collomb

  35. Decay Rings Breakdown Structure

  36. Target to Muon Decay Rings Neutrino Beam Muon Decay Ring FFAG 12.6 – 25 GeV RLA II 3.6 – 12.6 GeV Muons RLA I 0.9 – 3.6 GeV Protons Pre Linac 244 – 900 MeV Rotator Muon Decay Ring Buncher Cooler Target Neutrino Beam

  37. Areas Where We Need Support • RF • Cryogenics • Vacuum • Civil • Shielding

  38. Plan • Work on inputting information into the spreadsheets and the costing tool. • Work out what information (and format) for EDMS. • Get engineering input for the components and pricing. • Write baseline description document and schedule CERN reviews. • June 2012 • Complete design (i.e. no holes) with cost estimates for components. • Costing of all buildings, tunnels and services.

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