3.9 GHz Cryomodule Design Tom Peterson, Yun He, Matt Kramp 20 November 2015 Preliminary Design Review.

Slides:



Advertisements
Similar presentations
Elvin Harms, Tom Peterson, Yuriy Orlov, Frank McConoloque.
Advertisements

Superconducting Spoke Resonator Cavities and Cryomodules
RF Unit Test Facility at NML & CM1 Test Plan Bob Kephart Fermilab IWLC-10 October 20, 2010.
CRYO PIPING & INTER-MODULE CONNECTIONS Yun He, Daniel Sabol, Joe Conway External Review of MLC Daniel Sabol, MLC External Review 10/3/2012.
Internal Cryomodule Instrumentation Sensors, Actuators, Heaters, and Wiring ERL Main Linac Cryomodule 9/5/2012 Peter Quigley Internal Design Review.
Alignment and assembling of the cryomodule Yun He, James Sears, Matthias Liepe MLC external review October 03, 2012.
LCLS-II Cryomodule Design Tom Peterson LCWS14 7 Oct 2014.
Superconducting Accelerating Cryo-Module Tests at DESY International Workshop on Linear Colliders 2010 (ECFA-CLIC-ILC Joint Meeting) Denis Kostin, MHF-SL,
SRF Results and Requirements Internal MLC Review Matthias Liepe1.
R&D Status and Plan on The Cryostat N. Ohuchi, K. Tsuchiya, A. Terashima, H. Hisamatsu, M. Masuzawa, T. Okamura, H. Hayano 1.STF-Cryostat Design 2.Construction.
650 MHz Cryomodule Design, 21 Feb 2011Page 1650 MHz Cryomodule Design, 21 Feb 2011Page 1 Project X Cryomodules Tom Peterson and Yuriy Orlov with material.
ESS cavities interfaces
Internal Cryomodule Instrumentation ERL Main Linac Cryomodule 10/10/2015 Peter Quigley, MLC Design Review.
Cryomodule Helium Vessel Pressure -- a Few Additional Comments Tom Peterson 18 November 2007.
SCU Segmented Cryostat Concept M. Leitner, S. Prestemon, D. Arbelaez, S. Myers September 2 nd, 2014.
LCLS-II cryomodule alignment. 2 Wednesday meeting, 6/17/2015 Topics Alignment of Components inside the CM Tunnel Network Tolerances LCLS-II cryomodule.
FNAL Cavities for S1 Global Jim Kerby ALCPG 09. FNAL Deliverables Discussed in meetings 15/16 July and 10/11 Sept, and Webex and s 9/30/20092FNAL.
Type IV Cryomodule Proposal (T4CM) Don Mitchell, 16 JAN 2006.
CRYOGENICS FOR MLC Cryogenic Piping in the Module Eric Smith External Review of MLC October 03, October 2012Cryogenics for MLC1.
Cryomodule Development at Fermilab Don Mitchell Representing the SRF engineering community at Fermilab April 20, 2009 Tsukuba, Japan TILC09.
Harry Carter – LCFOA Meeting 5/1/06 1 LCFOA Technical Briefings: Cryomodules H. Carter Fermilab Technical Division.
1Matthias LiepeAugust 2, 2007 Future Options Matthias Liepe.
Date 2007/Oct./23 FNAL-GDE-Meeting Global Design Effort 1 Cryomodule Interface Definition (FNAL-GDE-Meeting) N. Ohuchi.
9/17/07IRENG071 Cryogenic System for the ILC IR Magnets QD0 and QF1 K. C. Wu - BNL.
30 May 2007 DESY Cryomodule Discussion 1 Type 4 Cryomodule Technical Discussion Tom Peterson Compiled from various previous meeting notes and many sources.
Carlo Pagani University of Milano INFN Milano-LASA & GDE ILC and XFEL Cryomodules Preliminary thoughts for convergence ILC EDR Kick-off Meeting DESY,
Alignment and assembling of the cryomodule Yun He, James Sears, Matthias Liepe.
Overview of Main Linac Cryomodule (MLC)
Date 2007/Sept./12-14 EDR kick-off-meeting Global Design Effort 1 Cryomodule Interface definition N. Ohuchi.
SPL cryomodule specification meeting, CERN 19th October 2010 SPL cryomodule specification: Goals of the meeting SPL cryomodule specification: Goals of.
Overview of Main Linac Cryomodule (MLC) Yun HE MLC Internal Review 9/5/2012Yun HE, MLC Internal Review1.
LCLS-II Prototype Cryomodule Vacuum Vessel and HGRP Tom Peterson 4 December 2014 Design Review.
CM2 Helium Circuit Vacuum Leak & Repair Tug Arkan, 6/18/
26 April, 2016 LCLS II Cryomodules and Cryoplant, Joe Preble LCLS-II Overview JLAB Organization for LCLS-II JLAB responsibilities & Schedule and Status.
CW Cryomodules for Project X Yuriy Orlov, Tom Nicol, and Tom Peterson Cryomodules for Project X, 14 June 2013Page 1.
Page 1 CRYOMODULE 650 (TESLA Style) Stand Alone Tom Peterson and Yuriy Orlov Collaboration Meeting 25 Jan 2011.
CMTF Cryogenics Arkadiy Klebaner May 6, Outline CMTF cryogenic system scope Goals Key functional requirements Conceptual layout Cryoplant Current.
Ralf Eichhorn CLASSE, Cornell University. I will not talk about: Cavities (Nick and Sam did this) HOM absorbers (did that yesterday) Power couplers (see.
FNAL Cryomodule Assembly and Installation Plans Tug Arkan May 22, 2015.
Low Beta Cryomodule Development at Fermilab Tom Nicol March 2, 2011.
LCLS-II Cryomodule Design
Cryomodule Specifications and Design Overview Tom Peterson 12 May 2015 LCLS-II 1.3 GHz Cryomodule.
Spoke section of the ESS linac: - the Spoke cryomodules - the cryogenic distribution system P. DUTHIL (CNRS-IN2P3 IPN Orsay / Division Accélérateurs) on.
3.9 GHz cavity and CM design Nikolay Solyak (from behalf of LCLS-II design team) Acc Physics meeting, Feb.03, 2016 Speaker:
Development of Cryo-Module Test Stand (CMTS) for Fermi Lab (R.L.Suthar, Head,CDM, BARC) Cryo-Module Test stand (CMTS) is a very sophisticated equipment.
Cryomodule Interconnect Installation Issues A Comparison of XFEL to LCLSII Karen Fant 7/29/2015.
Cryomodule Safety Approvals Jay Theilacker LCLS-II Production Cryomodule Final Design Review May 12-14, 2015.
650 MHz Cryomodule -- Discussions at RRCAT October 2010 Tom Peterson, with Harry Carter, Camille Ginsburg, and Jim Kerby 19 Nov 2010.
Shuichi NoguchiTTC Meeting at Milano, Injector Cryomodule for cERL at KEK Cavity 2 Prototypes were tested. Input Coupler 2 Couplers were tested.
ESS Cryomodule Status Meeting – Introduction | | Christine Darve Introduction to Cryomodules for the ESS 2013 January, 9 th Christine Darve.
Prototype Cryomodule FDR Ken Premo 21 – 22 January 2015 High Power Coupler Design.
TDR Cryogenics Parameters Tom Peterson 28 September 2011.
LCLS-II 3 rd Harmonic Dressed Cavity Design Review Chuck Grimm November 20, 2015.
LCLS-II Prototype Cryomodule Darryl Orris 21 January 2015 Final Design Review: Instrumentation.
650 MHz, Beta = 0.9, 11 April 2012Page 1650 MHz, Beta = 0.9, 11 April 2012Page 1 Project X Beta = 0.9, 650 MHz Cavity and Cryomodule Status Tom Peterson.
Dana Arenius LCLS-II 4.5K Cold Box Director’s Review November 16, 2016
CERN – Zanon discussions
2K Cold Box FDR Introduction
Cryomodule test stand at ESS site
Status and plans for the 3.9 GHz section of XFEL
TTC Topical Workshop - CW SRF, Cornell 12th – 14th June 2013
ILC Cryogenic Systems Draft EDR Plan
Wolfgang Anders, BESSY, Berlin
V. Veshcherevich Cornell University
ILC Cryogenics -- Technical Design Report Planning
SNS PPU Cryomodule Instrumentation
Cryomodule Assembly Plan
Cryomodule Design for CW Operation 3.9 GHz considerations
SNS PPU Cryomodule Instrumentation
SNS PPU Cryomodule Design Overview
Presentation transcript:

3.9 GHz Cryomodule Design Tom Peterson, Yun He, Matt Kramp 20 November 2015 Preliminary Design Review

2 Outline Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Introduction, configuration and layout Documentation list Design overview Summary Additional information

3 LCLS-II Linac Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Physics Requirements Document: “SCRF 1.3 GHz Cryomodule,” LCLSII-4.1-PR Thirty-five 1.3 GHz 8-cavity cryomodules Two 3.9 GHz 8-cavity cryomodules Four cold segments (L0, L1, L2 and L3) which are separated by warm beamline sections.

4 LCLS-II cryomodules: top level parameters Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Cryomodule (CM) ParametersSymbolnom.valueUnits Cavity operating temperatureT­ cryo 2K # 9-cell cavities per cryomodule (1.3 GHz)N cav 8- # installed cryomodules (1.3 GHz)N CM 35- # 3.9-GHz cavities per 3.9 GHz CM-8- # 3.9 installed GHz cryomodules-2- # installed 1.3 GHz cryomodules in L0N CM0 1- # installed 1.3 GHz cryomodules in L1N CM1 2- # installed 3.9-GHz cryomodules as linearizerN CMLH 2- # installed cryomodules in L2N CM2 12- # installed cryomodules in L3N CM3 20- Physics Requirements Document: “SCRF 1.3 GHz Cryomodule,” LCLSII-4.1-PR-0146.

5 Documentation: Physics & Gen’l CM requirements Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Document Reference NumberDocument Title Physics requirements LCLSII-1.1-PR-0133LCLS-II Parameters LCLSII-4.1-PR GHz Cryomodule LCLSII-4.1-PR-0097SCRF 3.9 GHz Cryomodule LCLSII-PR Magnet Alignment Tolerances LCLSII-2.4-PR-0081-R0Magnets LCLSII-2.4-PR-0136Beam Position Monitor General cryomodule requirements LCLSII-2.5-FR-0053Functional Requirements Specification, "1.3 GHz Cryomodule" LCLSII-4.5-ES-0356 Engineering Specifications Document, “1.3 GHz Cryomodule Technical Description” LCLSII-4.5-EN-0179Engineering Note, “Cryomodule Heat Load” LCLS-II-4.5-EN-0186Engineering Note, “Cryogenic System – Cryomodule Design Methodology” LCLSII-2.5-IC-0056Interface Control Document, “Accelerator Systems to Cryogenic Systems” LCLSII-4.5-IC-0372 Interface Control Document, "LCLS-II Cryomodule External Interfaces" (ED ) SLAC-I-720-0A24E-001 Seismic Design Specification for Buildings, Structures, Equipment and Systems: 2014 LCLSII-4.5-EN-0226Engineering Note, “Cryomodule Seismic Design Criteria” LCLSII-4.9-IC-0058Interface Control Document, "Cryogenic Distribution System" LCLSII-4.5-EN-0214Cryomodule Design Heat Flux for Vacuum Failures LCLSII-4.1-FR-0096-R0 Functional Requirements Specification, “3.9 GHz Superconducting RF Cryomodule”

6 Documentation: CM components Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Document Reference NumberDocument Title About cryomodule components LCLSII-4.5-ES-0411Fermilab Engineering Specification, "LCLS-II Cryomodule Vacuum Vessel" LCLSII-4.5-ES-0412Fermilab Engineering Specification, "LCLS-II Cryomodule HGRP" LCLSII-4.5-ES-0055Engineering Specifications Document, “Fundamental Power Coupler" LCLSII-4.5-IC-0237Interface Control Document, “Fundamental Power Coupler” LCLSII-4.5-EN-0221Engineering Note, “Tuner electro-mechanical design” LCLSII-4.5-ES-0385Cryomodule SRF Cavity Tuner LCLSII-4.5-EN-0222Magnetic Shielding: Requirements and Possible Solutions LCLS-II-4.5-EN-0310 Engineering Note, “A Study of Magnetic Shielding Performance of a Fermilab International Linear Collider Superconducting RF Cavity Cryomodule” LCLSII-4.5-ES-0413 Fermilab Engineering Specification, "LCLS-II Prototype Cavity Magnetic Shield Specification" LCLSII-4.5-ES-0355Engineering Specifications Document, "Cryomodule Magnet" LCLSII-EN-0286Engineering Note, “Vacuum System Safety Plan” LCLSII-4.5-IC-0237Interface Control Document, “Fundamental Power Coupler” LCLSII-4.5-ES-0414 Engineering Specifications Document, “CM Coaxial Cable and Connectors Specification" LCLSII-4.5-ES-0415Engineering Specifications Document, “Prototype Cryomodule Sensors Specification" LCLSII-4.5-ES-0416Engineering Specifications Document, “Multi-pin Connectors" LCLSII-4.5-ES-0417Engineering Specifications Document, “Prototype Cryomodule Sensor Wiring" LCLSII-4.5-ES-0418LCLS-II 1.3 GHz Cryomodule Stand Design LCLSII-4.5-ES-0419LCLS-II 1.3 GHz Cryomodule Transport System Fermilab documentLCLS-II Magnet Package Design, Fabrication, and tests, May 6, 2014 LCLSII-4.5-ES-0403Cold Button Beam Position Monitor F LCLS-II Cold BPM Assembly Drawing

7 Documentation: CM details, analyses, compliance Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Document Reference NumberDocument Title Cryomodule engineering details, analyses, and compliance documents F Assembly, 1.3GHz Cryomodule LCLS-II (model) F LCLS-II Prototype Cryomodule P&ID (drawing) ED Master Spreadsheet 1.3GHz CM-LCLS-II (cryomodule dimensional details) ED LCLS-II CDS Relief System Analysis ED Fermilab Engineering Note, LCLS-II Cryomodule Vacuum Vessel (FESHM conformance) ED Fermilab Engineering Note LCLS-II Vacuum Vessel FEA Structural Analysis ED Cryomodule vacuum vessel venting calculation ED Procedure for Support Post Traction Test (Draft) ED Fermilab Engineering Specification, LCLS-II Cryomodule Beam Pipe Copper Plating ED Assembly Procedure for LCLS-II Support Post (Draft) ED LCLS-II 1.3GHz Prototype Cryomodule Instrumentation List ED P&ID (instrumentation) tag name list ED Inter-connect assembly procedures ED JT valve sizing and flow calculation ED Cool-down valve sizing and flow calculation ED Cryomodule two phase pipe pressure, vapor velocity, and venting calculation ED Cryomodule cooldown line pressure, flow, and venting calculation ED Cryomodule cavity helium circuits ED Cryomodule two phase pipe valve sizing calculation ED LCLS-II Inter-module bellows unit specification EN Cryomodule piping engineering note (FESHM piping standard) Fermilab draft documentElectric heater sizing, design, implementation engineering note ANL/Fermilab documentThermal intercept analyses (ANL effort) LCLSII-4.5-EN-0430Stress Analysis of LCLS II Cryomodule for Seismic Load LCLSII-4.9-EN-0253CDS/Cryomodule What-If Analysis LCLSII-4.9-EN-0255CDS/Cryomodule Failure Mode and Effects Analysis EN01774Dressed cavity helium vessel engineering note (cavity AES035, FESHM conformance) EN01748Dressed cavity helium vessel engineering note (cavity AES027, FESHM conformance) ED Fermilab Engineering Specification, "LCLS-II Cryomodule Cold Mass Upper Sub- assembly"

8 Documentation: CM other references docs & pubs Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Document Reference NumberDocument Title Other reference documents and publications TESLA report #94-18 (June, 1994). “Notes about the Limits of Heat Transport from a TESLA Helium Vessel with a Nearly Closed Saturated Bath of Helium II”, by Tom Peterson, Fermilab REVIEW OF SCIENTIFIC INSTRUMENTS 81, (2010). O. Kugeler, A. Neumann, W. Anders, and J. Knobloch, Helmholtz-Zentrum- Berlin (HZB), Berlin, Germany, “Adapting TESLA technology for future cw light sources using HoBiCaT” Advances in Cryogenic Engineering, Vol 43B, pp "Latest Developments on He II Co-current Two-phase Flow Studies," by B. Rousset, A. Gauthier, L. Grimaud, and R. van Weelderen, in Advances in Cryogenic Engineering, Vol 43B (1997 Cryogenic Engineering Conference).

9 Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015

10 “First Light”, 1 cryoplant with 2 cryomodule strings Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 CP-1 Early “First Light” CP-2 Normal Beam Operations U-tube TL Jumper Connections

11 Normal beam operations 2 cryogenic plants with 2 cryomodule strings Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 CP-1 Normal Beam Operations CP-2 Normal Beam Operations U-tube Jumper Connections removed

GHz cryomodule (two needed) Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015

13 Design strategy Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Build on successful implementation now in operation at FLASH Many lessons learned and subsequently applied XFEL experience LASA, Milano has adapted our design and used us as a resource including test verification reciprocal collaboration in progress Apply LCLS-II 1.3 GHz CM as much as possible lower risk, but sequential (series) design process will supplement plans for Design Verification Common procurements e.g. instrumentation Common transport fixture CMTS can accommodate both types of CM’s Primary design issues Tuner (modification to add piezos to existing blade tuner design) RF Power Input Coupler for CW operation Cavity dynamic heat – larger diameter 2-phase chimney Reduce trapped modes – minor change to ends, but not cavity

GHz cryomodule flow scheme Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015

GHz cryomodules – prior experience Peterson, 3.9 GHz CM Design, PDR, 20 Nov cavity 3.9 GHz cryomodule designed and built at Fermilab for FLASH at DESY, in operation. Shown here in the linac. 3.9 GHz cryomodule for XFEL design by INFN

GHz RF dressed cavity model Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015

17 Tuner - design Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015  ‘Slim’ blade tuner design is preferred to minimize significant re-engineering of the dressed cavity/helium vessel while providing room for a larger 2- phase chimney  Designed and built by LASA/INFN, Milano for the 3.9 GHz cavities fabricated for the XFEL project  Modified to allow fast tuning by means of piezo tuners  Encapsulated piezo designed for the LCLS-II 1.3 GHz cavities will well fit for this task  Experienced LLRF & microphonics team at Fermilab Encapsulated piezo stack for Fast tuner Modification of the LASA/INFN tuner by adding 2 encapsulated piezo stacks

Q:\TD_SCRF\LCLS-II\3rd_Harmonic\Coupler\ MAIN-COUPLER_ASSEMBLY_3-9GHZ.sat Peterson, 3.9 GHz CM Design, PDR, 20 Nov rd harmonic cavity Power Coupler For LCLS-II three modifications of existing design will provide safe margin for operation at 2kW cw power:  Shortening antenna to provide Qext~2.5e7  Decrease length of two SS bellows in inner conductor (warm part) from 20 convolutions to 10 convolutions  150 microns Cu plating of inner conductor (instead of 30 microns in current design)  Also considering other options for copper

GHz cryomodule support system Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Cavity support system Cavity helium tank anchored to Invar rod Fixed support post Slide-able support post Invar rod fixed to HGRP at the location under fixed support post

Constraints in increasing the chimney size Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Support hanger between chimney and tuner Need to shift cavity string during cold mass assembling Needle bearing clamps 14 mm between welds Tuner ring at edge of helium tank 3 mm for tack welding

Cavity-odd: F Cavity rotated by 180°wrt helium tank Cavity-even: F Chimney: ID mm, OD 63.5 mm 2-phase pipe: ID mm, OD mm cavity string F BPM spool F Flange Reducer F Φ38 mm to Φ78 mm, 18 mm THK mm Chimney tee to HGRP Peterson, 3.9 GHz CM Design, PDR, 20 Nov GHz cryomodule cavity string (note alternating input coupler positions)

GHz cryomodule assembly Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Identical piping Less Instrumentation flanges (no magnets) Identical inter-module bellows Beams m

JT Valve Pre-cool valve Access to cryogenic valve welds to piping lines Module pickup bushing hoist rings Pressure relief 2 Instrumentation ports Port for roughing pump & gauge Insulating vac pump-out port 4 couplers on both sides of module 8 pairs of instrumentation ports 2 LHe level instrumentation ports 2 support feet Survey fiducials On both sides of 2 post ports Fixed support post Sliding support post Peterson, 3.9 GHz CM Design, PDR, 20 Nov GHz cryomodule external physical interfaces

GHz cryomodule overall dimensions Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015

25 Cryomodule cross sections Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015

26 Liquid helium levels in the 2-phase pipe with LCLS-II tunnel slope ~0.5% Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 Upstream end Downstream end Beam 5250 mm Shorter cryomodule results in less impact of slope on liquid helium elevation issue in the 2-phase pipe.

2 K heat in first few cryomodules From LCLScryoHeat-18Sep2015.xlsx 3.9 GHz cryomodule heat load is incorporated into Cryogenic Heat Load, LCLSII-4.5-EN-0179 A small revision is required for 3.9 GHz: 14 cavities operating at 13.4 MV/m Peterson, 3.9 GHz CM Design, PDR, 20 Nov

GHz cryomodule summary Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 LCLS-II 3.9 GHz Harmonic Linearizer consists of two 8- cavity cryomodules Parameter set determined Design issues identified and being addressed Design work begun & accelerating some work 1.3 GHz design & commonalities collaborations – XFEL, ANL, etc. Schedule in place Driven by Project decisions (after 1.3 GHz) 1.3 GHz effort now focusing on procurements

29 Acknowledgments Peterson, 3.9 GHz CM Design, PDR, 20 Nov 2015 This presentation includes information from many people at Fermilab, Jlab, and SLAC involved in cryomodule design, cryogenic distribution design, and overall cryogenic system design. Special thanks to Camille Ginsburg, Chuck Grimm, Elvin Harms, Yuriy Orlov, and Yuriy Pischalnikov who provided information and slides for this presentation.

Backup slides, additional information Peterson, 3.9 GHz CM Design, PDR, 20 Nov