Status of U.S. Cavity & Cryomodule Industrialization Bob Kephart LCWS10/GDE Beijing, March, 2010.

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Presentation transcript:

Status of U.S. Cavity & Cryomodule Industrialization Bob Kephart LCWS10/GDE Beijing, March, 2010

LCWS102 Introduction In this talk I review the current status and plans for: –North American industrial fabrication of 1.3 GHz elliptical cavities –Industrial fabrication of cryomodule parts –Development of an industrial cavity processing capability 1.3 GHz cavity and CM procurements support –Cavity R&D towards the ILC S0 goals (FNAL, ANL, JLAB,Cornell effort) –Construction of cryomodules to attempt to meet ILC S1 & S2 goals –Development of qualified cavity and CM parts vendors Currently plan to purchase Cavities with the “TESLA” shape Cryomodules parts are being ordered in U.S. industry –cold mass parts, He vessels, tuners, couplers, etc Also working to develop an industrial cavity processing capability in North America Most U.S. industrialization is funded with SRF and ARRA funds (generic vs ILC funds)

LCWS10 3 Introduction Motivation for Industrial Development: –Promotes competition which should lead to improved performance of SRF components and lower prices for future accelerators ( ILC or Project X) –Multiple qualified vendors will ensure product availability in case one vendor ceases operations or has other large contracts –Promotes increased industrial capacity in preparation for the construction of projects –Part of our mission as a DOE laboratory One concern is the timing for industrialization –Project timescales (PX and ILC) are still uncertain –Once an industrial capability is created it atrophies if not used

Sept 30, 2009LCWS104 North American Cavity Vendors Pavac Industries, Inc. Niowave, Inc. C.F. Roark Welding & Engineering Co, Inc. Advanced Energy Systems, Inc. Advanced Energy Systems (AES), Inc. Medford, New York Niowave, Inc. Lansing, Michigan C.F. Roark Welding & Engineering Co, Inc. Brownsburg, Indiana Pavac Industries, Inc. Richmond, British Columbia Opening branch in Batavia

LCWS105 AES has complete production capability on-site 10 nine-cells delivered; 6 more in April, 20 more ordered (ARRA) 1.3 GHz Tesla single-cell 1.3 GHz Tesla nine-cell 1.3 GHz re-entrant nine-cell Electron-beam welding facility

Performance of AES 9-cell cavities KEK pit repair + ANL/FNAL! ILC goal ANL/FNAL! Page 6 4 of 6 recent AES cavities exceed 35 MV/M at JLAB

LCWS107 Niowave & Roark collaborate on 1.3 GHz cavities Roark is working independently on low-beta structures 6 Single-cell cavities deliver Jun 08 Performed well 6 nine-cell cavities in fabrication Expect delivery of 1st 2 in April Evaluating bid on ARRA cavities Roark 325 MHz beta=0.22 single-spoke cavity Delivered Summer 2008 Design = 10 4K Exceeded 30 2 K Ordered 10 more for Project X

LCWS108 PAVAC is producing 20 coaxial resonators in collaboration with TRIUMF for the ISAC-II Phase-II extension Two prototypes manufactured and tested; production under way. Both prototypes perform significantly above ISAC-II specifications; average values of E a =8.2MV/m, Ep=40MV/m cw (specification 6MV/m) Pavac is fabricating GHz single cell cavities, Evaluating bid on ARRA 9-cell cavities Excellent expertise in EB welders… NEW! Opening a branch in Batavia ISAC-II Specification Q0Q0 E a (MV/m) Average for Zanon Cavities Beta = 0.11 resonator

LCWS109 U.S. Cavity inventory and planned procurements

LCWS1010 Cavity design capabilities at Fermilab FNAL now has the personnel & software tools to design new cavity shapes: –Two good examples: the 3.9 GHz cavities and the 325 MHz single- spoke cavity (beta=0.22) –Electromagnetic, multi-pacting, mechanical, and thermal computations performed mainly in the Technical Division / SRF Development Dept. –Beam dynamics computations performed mainly in the Accelerator Physics Center –Mechanical design and design/drafting performed in Technical Division and Accelerator Division Plan to develop two new 650 MHz elliptical cavity designs for Project X –Beta=0.6, Beta =0.9 –Design in collaboration: e.g. lots of expertise at JLAB, Cornell, etc –Fabricate in Industry (and perhaps single cells at JLAB) –Process in Industry & labs (ANL/FNAL, JLAB, Cornell) –Test at labs

LCWS1011 U.S. Plan for Cavity Vendor Development The vendors learn through experience, so in general they will improve their manufacturing processes over time But, feedback from the laboratories is key to obtaining performance improvements –Careful QA and optical inspection of incoming cavities –Process & test cavities quickly Relatively small cavity orders allow for feedback between productions –AES made substantial improvements in tooling and installed an electron-beam welder after their first production of 4 nine- cell cavities Larger orders will allow us to better understand costs Close communication and regular visits Assistance from experts at Cornell and JLab Stimulus procurements will give cavity vendors a big boost

LCWS1012 U.S. Industrialization of Cryomodules Strategy on Cryomodule Industrialization –The value added during CM assembly is < 10% the value of the cryomodule. –The number we will assemble over the next few years is very small  have no plans to train industry to do assembly of ILC CM Any training likely to be lost… without follow on work Not even clear this would make sense for Project X volumes Strategy is to design CM at labs and order parts from industry

LCWS1013 U.S. Industrialization of Cryomodules CM1: is a TTF Type III+ and was assembled at FNAL in our CAF facility from a kit of parts provided by DESY/INFN –Dressed cavities from DESY –DESY style lever tuners –Magnet package located at end of cavity string (but no magnet) –DESY and INFN provided assistance in assembly CM2: will be built in 2010 at CAF. –Another Type III+ –Cold mass parts were procured in Europe with help from INFN –Populate with U.S. processed and dressed cavities CM3-CM6: –Type IV ILC/Project X design (larger pipe sizes) –Magnet package can be located in positions 2,5,8 (5 = center of CM) –Cold mass parts ordered in U.S. industry with ILC and ARRA funds –Populate with U.S. processed and dressed cavities –CM6 will be a CW cryomodule for Project X Cryomodules will go to NML: will try to meet ILC S1 and S2 goals

Integrated ILC/PX SRF Plan (Cryomodules) Page 14

Final Assembly CM1 String Assembly MP9 Clean Room CM1 Dressing cavities for CM2 Cryomodule activities at FNAL Move to NML CM1 installed FNAL S1 global KEK

LCWS1016 U.S. Industrialization of Cryomodules CM3-6 Parts He Vessels: –Fabricated of Titanium (like XFEL) –20 already procured from Hi-Tech (4637 N. 25 th Ave., Schiller Park, Il 60176) –40 more being procured with ARRA funds Likely vendors Hi-Tech, INCODEMA ( Titanium Fabrication Corp. (110 Lehigh Drive, Farifield, N.J ), and Titan Metal Fabricators Inc. (835 Flynn Rd., Camarillo, CA ) Tuners –For CM2 and beyond we will use Blade tuner developed by INFN –CM2 and S1-Global: 12 tuners provided by INFN, built in Europe –CM3-CM6: Tuners made by U.S. industry (ARRA) 20 Ti blade tuners from INCODEMA; 20 from Hi-Tech

LCWS1017 U.S. Industrialization of Cryomodules CM3-6 Parts Couplers –Vendor is Communications and Power Industries, CPI, (150 Sohier Road, Beverly, MA ) –12 couplers delivered for S1 global and CM2; –20 more ordered via SLAC (using ARRA funds) Cold mass parts and Vacuum Vessels –4 cryomodules worth of Type IV parts on order –Vendor is PHPK Technologies (2111 Builders Place, Columbus, OH 43204)

LCWS1018 Industrial Surface Processing Industrial Electro-polish –ARRA funds make it possible for us to develop Electro-polish capability in U.S. industry Competition to perform design study; AES won the bid –AES will make a proposal for a horizontal EP facility Capable of processing 1300 and 650 MHz elliptical cavities Benefits from existing clean room, HPR, and chemistry infrastructure funded at AES by Brookhaven National Lab Eco-friendly Surface Processing –Funded with ARRA funds –Goal is to produce smooth clean cavity surfaces without using HF and other toxic chemicals –3 companies have bid for design study Will select 1 or 2 –Fund best to demonstrate performance with single cells

LCWS1019 Summary Cavity procurements are needed for cavity R&D, cryomodule fabrication, and vendor development Fermilab is engaged in vendor development with three North American cavity vendors: –AES, Niowave/Roark, and PAVAC We are also engaged in industrialization of cryomodule parts and cavity surface processing Industrialization is being funded by ARRA funds –but one time infusion of funds In the longer run, Project X or other similar project are the likely path to U.S. SRF industrialization for a future ILC project