Introduction Ioanis Kourbanis PIPII Booster Beam Absorber PDR

Introduction Ioanis Kourbanis PIP-II Booster Beam Absorber PDR 20 November 2019 In partnership with: India/DAE Italy/INFN UK/STFC France/CEA/Irfu, CNRS/IN 2 P 3

Outline • PIP-II Requirements • PIP-II Scope • Project KPPs • PIP-II Organization • Booster WBS Organization • Booster Injection • Review Charge • Agenda 2 I. Kourbanis| Booster Beam Injection Absorber PDR review 11/20/2019

Global Requirement Document (GRD, #ED 0001222) Defines Performance Expectations and Scope Criteria for PIP-II are established on the basis of the P 5 report and the approved Mission Need Statement as follows: • Deliver 1. 2 MW of proton beam power from the Main Injector over the energy range 60 – 120 Ge. V, at the start of LBNF operations; • Support the current 8 -Ge. V program at Fermilab including the Mu 2 e, g-2, and short-baseline neutrinos experiments; • Provide a platform for extension of beam power to LBNF to >2 MW; • Provide a path to increase the beam power to the Mu 2 e experiment to ~100 k. W at 800 Me. V, with a duty factor of up to 100%; • Provide a platform for extension of capability to flexible bunch pattern, high duty factor/higher beam power operations to multiple experiments simultaneously. • The above capabilities should be provided in a cost-effective manner. 3 11/20/20 19 I. Kourbanis| Booster Beam Injection Absorber PDR review

Charge #1 PIP-II Scope Driven by GRD Requirements • An 800 -Me. V superconducting H -, CW-compatible Linac • Beam transport of 800 -Me. V Hfrom the SRF Linac to the Booster, beam dump capable of ~1% duty factor, and switch yard to the Muon Campus. • A new injection area in the Booster • Modifications to the Booster, Main Injector, and Recycler Ring to enable 1. 2 MW power on LBNF target for 60 -120 Ge. V. • Associated conventional facilities. The linac enclosure is compatible with upgrades. 4 11/20/201 9 I. Kourbanis| Booster Beam Injection Absorber PDR review

Charge #1 Objective KPPs Define Project Commissioning Goals # Scope Threshold KPPs Objective KPPs 1 Linac Beam Energy Accelerate H- beam to 600 Me. V 1. Accelerate H- beam to 700 Me. V 2. Linac systems required to accelerate beam to 800 Me. V installed and tested 2 Linac Beam Intensity Beam delivered to Beam Dump at the end of Linac Beam with intensity of 1. 3 E 12 particles per pulse (H-) at 20 Hz delivered to Beam Line Dump 3 Booster/ Recycler/ Main Injector upgrades Booster, Recycler, and Main Injector Upgrades to support operations with beam power of 1. 2 MW on the LBNF target are installed and tested without beam Linac beam injected and circulated in Booster 5 11/20/2019 I. Kourbanis| Booster Beam Injection Absorber PDR review

L 3 Systems and Managers WBS 121. 01 PROJECT MANAGEMENT M. Kaducak System Manager WBS 121. 02 SRF & CRYO SYSTEMS G. Wu System Manager WBS 121. 03 ACCELERATOR SYSTEMS E. Harms System Manager WBS 121. 04 LINAC INSTALLATION & COMMISSIONING F. G. Garcia System Manager WBS 121. 05 ACCELERATOR COMPLEX UPGRADES I. Kourbanis System Manager WBS 121. 02. 01 WBS 121. 03. 01 WBS 121. 04. 01 Project Management G. Wu E. Harms WBS 121. 02 WBS 121. 03. 02 WBS 121. 04. 02 WBS 121. 05. 02 WBS 121. 06. 02 Half-wave Cryomodule MPS WFE Site Preparation A. Warner L. Prost Transfer Line/Beam absorber J. Ozelis Project Management F. G. Garcia I. Kourbanis S. Dixon M. Xiao R. Wielgos WBS 121. 06. 03 WBS 121. 04. 03 Test Infrastructure WBS 121. 05. 03 Cryoplant Building SSR Cryomodules HPRF, RF distribution J. Leibfritz D. Passarelli J. Steimel Beam Transfer Line Installation S. Dixon (acting) WBS 121. 03. 04 WBS 121. 04 D. Morris WBS 121. 06. 04 WBS 121. 02. 04 LLRF Building Infrastructure WBS 121. 05. 04 Utility Plant Building 650 MHz Cryomodules B. Chase J. Hunt Booster E. Huedem WBS 121. 03. 05 WBS 121. 04. 05 D. Johnson WBS 121. 06. 05 Magnets/PS Linac Installation WBS 121. 05 Linac Complex B. Hanna C. Baffes MI/RR S. Dixon Cryogenic Plant WBS 121. 03. 06 WBS 121. 04. 06 J. Dey B. Hansen Vacuum Beam Commissioning S. Chandrasekaran WBS 121. 02. 05 R. Andrews WBS 121. 02. 06 Cryogenic Distribution A. Dalesandro WBS 121. 03. 07 Controls J. Patrick WBS 121. 03. 08 E. Pozdeyev WBS 121. 04. 07 Accelerator Physics E. Pozdeyev Safety Systems R. Zifko WBS 121. 03. 09 Instrumentation V. Scarpine 11/20/2019 WBS 121. 06. 01 WBS 121. 05. 01 Project Management WBS 121. 03 WBS 121. 02. 03 6 WBS 121. 06 CONVENTIONAL FACILITIES S. Dixon System Manager I. Kourbanis| Booster Beam Injection Absorber PDR review WBS 121. 06 Booster Connection R. Wielgos

Scope/Deliverables 121. 05 Charge #3 • WBS Dictionary Definition: pip 2 -docdb #599 – Labor, materials, travel, and costs associated with the management, design, procurement, fabrication, and installation of and upgrades to the Booster, Recycler, and Main Injector to accommodate increased injection energy, increased intensity and higher repetition rates. Includes the design and installation of the Beam Transfer line from the Superconducting Linac to the Booster along with the Beam Absorber Line and the Beam Dump. – 121. 05. 01 Project Management and Coordination – 121. 05. 02 Transfer Line and Beam Absorber – 121. 05. 03 Transfer line Installation – 121. 05. 04 Booster – 121. 05 Main Injector and Recycler Ring 7 11/20/2019 I. Kourbanis| Booster Beam Injection Absorber PDR review

Organization/Team Booster 121. 05. 04 Acc. U - Booster D. Johnson 121. 05. 04. 01 Bstr Upgrades PM. 121. 05. 04. 02 Bstr 800 Me. V Inject D. Johnson. 121. 05. 04. 03 Bstr 20 Hz Upgrade S. Chaurize –deputy head AD/PS K. Triplett – AD/PS ORMUMP magnet/girder D. Harding – head APS-TD/MSD Gradient magnet/girder D. Harding – head APS-TD/MSD 121. 05. 04 Bstr Dampers N. Eddy – AD/Instrumentation ORBUMP power Supplies C. Jensen – head AD/EE Foil/changer system S. Chaurize – deputy head AD/PS 121. 05. 04. 05 Bstr Collimators Painting Magnets D. Harding – head APS-TD/MSD Injection Absorber V. Pronskikh – AD/AS/MARS J. Batko – AD/MS Painting Magnet power Supplies C. Jensen – head AD/EE 8 11/20/2019 I. Kourbanis| Booster Beam Injection Absorber PDR review V. Kapin – AD/PS/Physics

Scope/Deliverables BSTR-800 Me. V Injection • 121. 05. 04. 02 - Acc. U – BSTR - 800 Me. V Injection System – New Girder for mounting injection components – ORBUMP magnets & power supply (4) – Injection waste beam absorber assembly – Stripping Foil Assembly – H & V Painting magnets & power supplies (8) – New reduced length “D” combined function magnets (2) for injection – New wide aperture “D” combined function magnets (2) for extraction 9 11/20/2019 I. Kourbanis| Booster Beam Injection Absorber PDR review

Booster Injection System Design foil H - Gradient Magnet H 0 H corrector ORBUMP - ABSORBER H ORBUMP 800 Me. V Booster Injection System Design Gradient Magnet + Pulsed injection bump CL Ø Focus on Injection Beam Absorber. 10 I. Kourbanis| Booster Beam Injection Absorber PDR review 11/20/2019

Review Charge Questions • Are the requirements documented, clear, complete and appropriate? • Is the proposed design for the Booster Injection Beam Absorber likely to meet requirements? Explain any deficiencies or concerns. • Are there any features present (or absent) that threaten the intended function and performance of this design? • Is the proposed shielding of the main absorber adequate? • Have safety and environmental aspects been appropriately considered? • Have quality aspects been appropriately considered? 11 11/20/20 19 I. Kourbanis| Booster Beam Injection Absorber PDR review

Review Agenda • Introduction: I. Kourbanis • PIP-II Booster Injection/Beam Absorber: D. Johnson • Break • MARS Calculations: V. Pronskikh • Thermal Analysis: J. Batko • Lunch • Closeout – Review Chair 12 11/20/2019 I. Kourbanis| Booster Beam Injection Absorber PDR review

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