ARIEL Buildings Construction and Electron Linac Photo-Fission Driver for the Rare Isotope Program at TRIUMF
|
|
|
- Baldwin Wilcox
- 5 years ago
- Views:
Transcription
1 Canada s national laboratory for particle and nuclear physics Laboratoire national canadien pour la recherche en physique nucléaire et en physique des particules ARIEL Buildings Construction and Electron Linac Photo-Fission Driver for the Rare Isotope Program at TRIUMF IPAC 12, 2012 May 21 Yu-Chiu Chao for e-linac team Accelerating Science for Canada Un accélérateur de la démarche scientifique canadienne Owned and operated as a joint venture by a consortium of Canadian universities via a contribution through the National Research Council Canada Propriété d un consortium d universités canadiennes, géré en co-entreprise à partir d une contribution administrée par le Conseil national de recherches Canada
2 Outline Motivation RIB science at ISAC ARIEL Civil Construction Stores & Badge Buildings Compressor Building ARIEL Targets and RIB Building E-hall renovation E-linac (the machine) E-Gun ELBT at VECC test area Cryomodules Cryogenic System HPRF Conclusion ARIEL E-linac, IPAC 12, 2012 May 21 2
3 ARIEL triples RIB science at ISAC New Mass Separators New Targets e-linac New Accelerators New Front End Cyclotron ISAC I ISAC II ARIEL I ARIEL II Existing 10-Year Vision: expanded RIB program with: three simultaneous beams increased number of hours delivered per year new beam species increased beam development capabilities Implementation: Complementary electron linac driver for photo-fission New target stations and front end New proton beamline Staged installation ARIEL E-linac, IPAC 12, 2012 May 21 3
4 Site Preparation: demolition, relocation, construction 2011 October CONGESTED SITE Old Stores &RH Demolition Excavation and shoring Makes way for ARIEL building New GHe compressor building New Stores building New Badge building ARIEL E-linac, IPAC 12, 2012 May 21 4
5 New Stores Bldg Ground Breaking: 2011 March Completion: 2011 September ARIEL E-linac, IPAC 12, 2012 May 21 5
6 New Badge Building Construction started: 2011 August Occupancy: 2011 November ARIEL E-linac, IPAC 12, 2012 May 21 6
7 Helium Compressor Building Ground breaking: 2012 March Foundations: 2012 May Expect occupancy: 2012 December ARIEL E-linac, IPAC 12, 2012 May 21 7
8 ARIEL building design The culmination of an intensive study of what is needed to facilitate smooth and routine RIB delivery. ARIEL E-linac, IPAC 12, 2012 May 21 8
9 ARIEL Layout below ground RIB front end BL4N protons Target Hall Actinide Annex Cyclotron vault Tunnel Electron Hall ARIEL E-linac, IPAC 12, 2012 May 21 9
10 Excavation, Shoring, Construction Excavation started: 2011 November Tunnel Actinide Labs Target Hall RIB Annex RIB front end ARIEL site: 2012 Jan Building occupancy expected: 2013 April ARIEL site: 2012 May ARIEL E-linac, IPAC 12, 2012 May 21 10
11 Electron Hall Renovation: Cleanout Electron Hall 2010 Oct Cyclotron vault Services Annex Proton hall clean up complete 2012 Feb Construction underway 2012 March Expect occupancy 2012 October 2012 Feb ARIEL E-linac, IPAC 12, 2012 May 21 11
12 Electron Hall Renovation: South shield wall 1st concrete pour 2012/March Shielding upgrades South wall B2 up to ground for ERL/RLA operation. Final S. wall pour, 2012/April ARIEL E-linac, IPAC 12, 2012 May 21 12
13 Electron Hall Renovation: North shield wall Poured-in-place concrete N. Wall (shield e-hall from BL4N) Rebar for N shield wall, 2012/April 1 st pour cured 2012/May ARIEL E-linac, IPAC 12, 2012 May 21 13
14 E-Linac: Accelerator Overview 300 kev thermionic gun: 650 MHz modulated NC Buncher Injector: SC Capture Cavities ARIEL Phase I: 25 MeV, 200kW 10 ma, 5-10 MeV gain 100 kw beam power Solenoid Installed Cryoplant for Phase I & II Accelerator: Two cryomodules Two cavities/module, 10 ma, 40 MeV gain 400 kw beam power ARIEL Phase II: 50 MeV, 500kW ARIEL E-linac, IPAC 12, 2012 May 21 14
15 300 kv 10 ma Electron Gun Gun assembly Detail design mostly complete Procurements in progress Installation begins: 2012 Sept HVPS SF6 Vessel Many long lead items already delivered: Ceramic, HVPS, ITX, RF Cathodes, Steering coils HV cage ARIEL E-linac, IPAC 12, 2012 May 21 15
16 Gun Components Ceramic Insulator Steering Coil Cathode Solenoid BeCu Anode ARIEL E-linac, IPAC 12, 2012 May 21 16
17 SF6 vessel & Gun RF modulation RF horns and ceramic waveguide Successful dielectric waveguide R&D program with scale model & HFSS Eimac cathode rf matching network Transmission optimized at 650 MHz RF modulation on 100kV prototype makes bunched beam at 650MHz RF power on grid used to generate duty factors 0.1% to 99.9% at rep rates 100Hz to 1kHz 10µs ARIEL E-linac, IPAC 12, 2012 May
18 ELBT at VECC test stand BPM Buncher BPM BPM Diagnostic Box #1 Allison Scanner. ARIEL E-linac, IPAC 12, 2012 May 21 18
19 Test 1 Configuration screen 100kV e-gun & solenoid Slit University of Victoria View Screen Profile Monitor 300 W Faraday cup Buncher Camera Turbo ARIEL E-linac, IPAC 12, 2012 May 21 19
20 VECC ELBT Test Dec/2012 Feb A 0.9 A 1.0A 1.05A 1.1A Slit scanner profile for various solenoid settings Allison emittance scans performed 2012 Feb 09 onward up to to 660W beam power at ~20W/mm 2011 Dec 07: Image of gun electron beam ARIEL E-linac, IPAC 12, 2012 May 21 20
21 Accelerator Cryomodule Jlab style Scissor-Tuner prototype Single-cavity EINJ prototypes most features of two-cavity EACA design June: focus narrowed to completion of EINJ design, and fabrication in 2012 ARIEL E-linac, IPAC 12, 2012 May 21 Warm/cold Transition Ends 21
22 Injector Cryomodule Heat exchanger 4K separator Cryomodule concept borrows significantly from ISAC-II strongback 2K separator Power coupler Top loading box concept with cavity mounted to strongback that is suspended from struts Box gives headroom for on-board 2K/4K heat exchanger & 4K separator tuner cavity All procurements in hand Fabrication underway Cavity, 4K/2K insert (75% done) ARIEL E-linac, IPAC 12, 2012 May 21 22
23 Detail design complete: Cold mass support (strongback, struts), lid, cold mu-metal, scissor tuner Detail design in progress: Tank, warm/cold transition, LN2 shield Injector Cryomodule Detailing Completion milestone: ARIEL 2012 E-linac, IPAC June 12, 2012 May 1st 21 23
24 Cavity Status Success: 7 out of 7 PAVAC/TRIUMF singlecells meet requirements 7 cell Cu cavity delivered from PAVAC Nine cell cavity design fixed and contract signed Tooling optimized Four Nb half cells formed and welded ARIEL E-linac, IPAC 12, 2012 May 21 24
25 Cryogenic System Design/Procurement Liquid 2K produced in cryo-modules by SA pumping elinac Cryomodules Subatmospheric Pumping system Compressor Compressor Liquid 4K closed re-liquefaction/ refrigeration loop AND 77K LN system for He pre-cool. He Dewar Cold box Box Purity monitoring Purity monitoring (control) System Clean Helium Storage Tank Dirty Helium Storage Tank OR/GMS OR/GMS, Dryer, Purifier RT gaseous He. Emphasis on He purity White boxes: TRIUMF responsibility Pale blue boxes: cryoplant ordered from Air Liquide Advanced Technology, 2011 Oct ARIEL E-linac, IPAC 12, 2012 May 21 25
26 Helial Cold Box Supplied by ALAT Main Compressor Oil removal & Gas Management System Recovery Compressor Schedule 2013 March: ALAT cryoplant at TRIUMF 2013 October: commissioned Successful Final Design Review concluded 2012 May15 ARIEL E-linac, IPAC 12, 2012 May 21 26
27 Cryo-plant specs The plant shall demonstrate 3 modes: Mixed Mode: 4,6K and 242 L/h rising level Pure Liquefaction: 288 L/h at 4.6K in the Dewar rising level Pure Refrigeration: 600W at 4.6K in the Dewar (expected) Mixed mode point Required load line ALAT load line ARIEL E-linac, IPAC 12, 2012 May 21 27
28 Other major components He buffer tanks: delivery expected 2013 Jan Dewar in hand; will widen neck He Purifier in design stage Cold Helium Distribution System: tender mid K sub-atmospheric components: Pumps: tendere mid 2012 He heaters: prototyping He cold distribution and sub-atmospheric line Cold Box Tanks rated 15 Bara Capacity ~113 m 3 each LHe Dewar Accelerator cryomodules ARIEL E-linac, IPAC 12, 2012 May Ω Resistive heater prototype 28
29 High Power RF staging: 5mA, 25 MeV in 2014 ACCELERATOR CRYOMODULE #1 300keV e-gun 5mA, 5MeV 50 kw coupler * 50 kw Couplers 5mA, 25MeV 1.3GHz NC Buncher Cavity INJECTOR CROMODULE 50 kw coupler 50 kw coupler 50 kw 30 kw Inductive Output Tube 270 kw Klystron ARIEL E-linac, IPAC 12, 2012 May 21 29
30 30 kw IOT Transmitter IOT transmitter will be used for EINJ beam test 2013 Jan; RF input coupler conditioning (10kW) 2012 March onward Pout & Gain Efficiency P input, mw Power Output, kw Gain, db Efficiency, % 2011 June: Tube operated tube in excess of 30kW 2011July: Successful acceptance tests: ran cw at 30 kw for 24 hours, at 25kW for 40 hours and at 20 kw for 7 days without trip. Now running routinely ARIEL E-linac, IPAC 12, 2012 May 21 30
31 Coupler Conditioning Stand in VECC test area ARIEL E-linac, IPAC 12, 2012 May 21 31
32 1.3 GHz 290 kw klystron & HVPS procurement Require 200kW cw for EACA (2-cavity) cryomodule 2011 Aug: 290kW Klystron ordered from CPI, USA Coordinated purchase with Helmholtz Zentrum Berlin 2012 June: Final design review 2012 Nov: klystron factory test 600kW High Voltage Power Supply 2012 Feb: Tender issued 2012 March: Tender closed Vendors under consideration Klystron predicted CW Power Output vs. RF Input Drive ARIEL E-linac, IPAC 12, 2012 May 21 32
33 Conclusion Outstanding Progress Across All Areas Buildings Construction on schedule for 2013 April Injector Cryomodule beam test on schedule for 2013 March Accelerator Cryomodule beam test on schedule for 2014 June ARIEL E-linac, IPAC 12, 2012 May 21 33
34 Cavity & HOM Damping 9 cell cavity Inner 7 cells TTF geometry Modified end groups for larger coupler &HOM damping HOM frequency spectrum and shunt resistance for 9-cell cavity 78mm 96 mm Minimal damping goal Achieved damping Ideal damping goal damper damper Two 50 kw Cornell/ CPI coupler per cavity HOM damping target set by Regenerative BBU (2-pass) 39/35/48 mm iris geometry gives the lowest maximal (Rd/Q) Q L Damping by SS ring on coupler end, CESIC ring on tuner end All modes (Rd/Q) Q L < ohm ARIEL E-linac, IPAC 12, 2012 May 21 34
35 EINJ: Injector Cryomodule Detailing ARIEL E-linac, IPAC 12, 2012 May 21 35
Electron linac photo-fission driver for rare isotope program at TRIUMF
Canada s national laboratory for particle and nuclear physics Laboratoire national canadien pour la recherche en physique nucléaire et en physique des particules Electron linac photo-fission driver for
Status of Superconducting Electron Linac Driver for Rare Ion Beam Production at TRIUMF
Status of Superconducting Electron Linac Driver for Rare Ion Beam Production at TRIUMF Bob Laxdal, TRIUMF F. Ames, R. Baartman, I. Bylinskii, Y.C.Chao, D. Dale, K. Fong, E. Guetre, P. Kolb, S. Koscielniak,
High Brightness Injector Development and ERL Planning at Cornell. Charlie Sinclair Cornell University Laboratory for Elementary-Particle Physics
High Brightness Injector Development and ERL Planning at Cornell Charlie Sinclair Cornell University Laboratory for Elementary-Particle Physics June 22, 2006 JLab CASA Seminar 2 Background During 2000-2001,
Diamond RF Status (RF Activities at Daresbury) Mike Dykes
Diamond RF Status (RF Activities at Daresbury) Mike Dykes ASTeC What is it? What does it do? Diamond Status Linac Booster RF Storage Ring RF Summary Content ASTeC ASTeC was formed in 2001 as a centre of
Experience with the Cornell ERL Injector SRF Cryomodule during High Beam Current Operation
Experience with the Cornell ERL Injector SRF Cryomodule during High Beam Current Operation Matthias Liepe Assistant Professor of Physics Cornell University Experience with the Cornell ERL Injector SRF
3 cerl. 3-1 cerl Overview. 3-2 High-brightness DC Photocathode Gun and Gun Test Beamline
3 cerl 3-1 cerl Overview As described before, the aim of the cerl in the R&D program includes the development of critical components for the ERL, as well as the construction of a test accelerator. The
SRS and ERLP developments. Andrew moss
SRS and ERLP developments Andrew moss Contents SRS Status Latest news Major faults Status Energy Recovery Linac Prototype Latest news Status of the RF system Status of the cryogenic system SRS Status Machine
Biennial Scientific Report
Biennial Scientific Report 2013 2015 Biennial Scientifi c Report 2013 2015 Copyright 2016 TRIUMF Biennial Science Report 2013 2015 All rights reserved Editor-in-chief: Marcello Pavan Scientific Editors:
NSLS-II RF Systems James Rose, Radio Frequency Group Leader PAC 2011
NSLS-II RF Systems James Rose, Radio Frequency Group Leader PAC 2011 1 BROOKHAVEN SCIENCE ASSOCIATES Introduction Linac RF cavities and klystrons Booster Cavity-Transmitter Storage Ring 500 MHz SRF cavity
Status of BESSY II and berlinpro. Wolfgang Anders. Helmholtz-Zentrum Berlin for Materials and Energy (HZB) 20th ESLS-RF Meeting
Status of BESSY II and berlinpro Wolfgang Anders Helmholtz-Zentrum Berlin for Materials and Energy (HZB) 20th ESLS-RF Meeting 16.-17.11.2016 at PSI Outline BESSY II Problems with circulators Landau cavity
IOT OPERATIONAL EXPERIENCE ON ALICE AND EMMA AT DARESBURY LABORATORY
IOT OPERATIONAL EXPERIENCE ON ALICE AND EMMA AT DARESBURY LABORATORY A. Wheelhouse ASTeC, STFC Daresbury Laboratory ESLS XVIII Workshop, ELLETRA 25 th 26 th November 2010 Contents Brief Description ALICE
RF plans for ESS. Morten Jensen. ESLS-RF 2013 Berlin
RF plans for ESS Morten Jensen ESLS-RF 2013 Berlin Overview The European Spallation Source (ESS) will house the most powerful proton linac ever built. The average beam power will be 5 MW which is five
Next Linear Collider. The 8-Pack Project. 8-Pack Project. Four 50 MW XL4 X-band klystrons installed on the 8-Pack
The Four 50 MW XL4 X-band klystrons installed on the 8-Pack The Demonstrate an NLC power source Two Phases: 8-Pack Phase-1 (current): Multi-moded SLED II power compression Produce NLC baseline power: 475
RF Power Upgrade at Jefferson Lab
RF Power Upgrade at Jefferson Lab Rick Nelson*, Andrew Kimber *nelson@jlab.org * Notice: Authored by Jefferson Science Associates, LLC under U.S. DOE Contract No. DE- AC05-06OR23177. The U.S. Government
ILC-LNF TECHNICAL NOTE
IL-LNF EHNIAL NOE Divisione Acceleratori Frascati, July 4, 2006 Note: IL-LNF-001 RF SYSEM FOR HE IL DAMPING RINGS R. Boni, INFN-LNF, Frascati, Italy G. avallari, ERN, Geneva, Switzerland Introduction For
Introduction: CW SRF linac types, requirements and challenges High power RF system architecture
RF systems for CW SRF linacs S. Belomestnykh Cornell University Laboratory for Elementary-Particle Physics LINAC08, Victoria, Canada October 1, 2008 Outline L band Introduction: CW SRF linac types, requirements
Commissioning of Accelerators. Dr. Marc Munoz (with the help of R. Miyamoto, C. Plostinar and M. Eshraqi)
Commissioning of Accelerators Dr. Marc Munoz (with the help of R. Miyamoto, C. Plostinar and M. Eshraqi) www.europeanspallationsource.se 6 July, 2017 Contents General points Definition of Commissioning
INFN School on Electron Accelerators. RF Power Sources and Distribution
INFN School on Electron Accelerators 12-14 September 2007, INFN Sezione di Pisa Lecture 7b RF Power Sources and Distribution Carlo Pagani University of Milano INFN Milano-LASA & GDE The ILC Double Tunnel
2 Work Package and Work Unit descriptions. 2.8 WP8: RF Systems (R. Ruber, Uppsala)
2 Work Package and Work Unit descriptions 2.8 WP8: RF Systems (R. Ruber, Uppsala) The RF systems work package (WP) addresses the design and development of the RF power generation, control and distribution
Welcome and FRIB Project Status. FRIB Highlights and Plan Ahead
Welcome and FRIB Project Status Thomas Glasmacher Project Manager This material is based upon work supported by the U.S. Department of Energy Office of Science under Cooperative Agreement DE-SC0000661.
Status of CTF3. G.Geschonke CERN, AB
Status of CTF3 G.Geschonke CERN, AB CTF3 layout CTF3 - Test of Drive Beam Generation, Acceleration & RF Multiplication by a factor 10 Drive Beam Injector ~ 50 m 3.5 A - 2100 b of 2.33 nc 150 MeV - 1.4
Status of SOLARIS. Paweł Borowiec On behalf of Solaris Team
Status of SOLARIS Paweł Borowiec On behalf of Solaris Team e-mail: pawel.borowiec@uj.edu.pl XX ESLS-RF Meeting, Villingen 16-17.11.2016 Outline 1. Timeline 2. Injector 3. Storage ring 16-17.11.2016 XX
The ESS Accelerator. For Norwegian Industry and Research. Oslo, 24 Sept Håkan Danared Deputy Head Accelerator Division Group Leader Beam Physics
The ESS Accelerator For Norwegian Industry and Research Oslo, 24 Sept 2013 Håkan Danared Deputy Head Accelerator Division Group Leader Beam Physics The Hadron Intensity Frontier Courtesy of M. Seidel (PSI)
XFEL High Power RF System Recent Developments
XFEL High Power RF System Recent Developments for the XFEL RF Group Outline XFEL RF System Requirements Overview Basic Layout RF System Main Components Multibeam Klystrons Modulator RF Waveguide Distribution
SLS RF operation report 2003
SLS RF operation report 2003 M. Pedrozzi, Jean-Yves Raguin Paul Scherrer Institute, 5232 Villigen PSI, Switzerland SUMMARY LINAC report SR Superconducting Third Harmonic system report SR 500 MHz system
!"!3
Abstract A single-mode 500 MHz superconducting cavity cryomodule has been developed at Cornell for the electronpositron collider/synchrotron light source CESR. The Cornell B-cell cavity belongs to the
4.4 Injector Linear Accelerator
4.4 Injector Linear Accelerator 100 MeV S-band linear accelerator based on the components already built for the S-Band Linear Collider Test Facility at DESY [1, 2] will be used as an injector for the CANDLE
Upgrading LHC Luminosity
1 Upgrading LHC Luminosity 2 Luminosity (cm -2 s -1 ) Present (2011) ~2 x10 33 Beam intensity @ injection (*) Nominal (2015?) 1 x 10 34 1.1 x10 11 Upgraded (2021?) ~5 x10 34 ~2.4 x10 11 (*) protons per
5 Project Costs and Schedule
93 5 Project Costs and Schedule 5.1 Overview The cost evaluation for the integrated version of the XFEL with 30 experiments and 35 GeV beam energy as described in the TDR-2001 yielded 673 million EUR for
Operating Experience and Reliability Improvements on the 5 kw CW Klystron at Jefferson Lab
Operating Experience and Reliability Improvements on the 5 kw CW Klystron at Jefferson Lab Richard Walker & Richard Nelson Jefferson Lab, Newport News VA Jefferson Lab is a $600M Department of Energy facility
IOT RF Power Sources for Pulsed and CW Linacs
LINAC 2004 Lübeck, August 16 20, 2004 IOT RF Power Sources H. Bohlen, Y. Li, Bob Tornoe Communications & Power Industries Eimac Division, San Carlos, CA, USA Linac RF source property requirements (not
L-Band RF R&D. SLAC DOE Review June 15 th, Chris Adolphsen SLAC
L-Band RF R&D SLAC DOE Review June 15 th, 2005 Chris Adolphsen SLAC International Linear Collider (ILC) RF Unit (TESLA TDR Layout) Gradient = 23.4 MV/m Bunch Spacing = 337 ns Fill Time = 420 µs Train Length
Upgrade of CEBAF to 12 GeV
Upgrade of CEBAF to 12 GeV Leigh Harwood (for 12 GeV Accelerator team) Page 1 Outline Background High-level description Schedule Sub-system descriptions and status Summary Page 2 CEBAF Science Mission
Pulsed Klystrons for Next Generation Neutron Sources Edward L. Eisen - CPI, Inc. Palo Alto, CA, USA
Pulsed Klystrons for Next Generation Neutron Sources Edward L. Eisen - CPI, Inc. Palo Alto, CA, USA Abstract The U.S. Department of Energy (DOE) Office of Science has funded the construction of a new accelerator-based
RF Upgrades & Experience At JLab. Rick Nelson
RF Upgrades & Experience At JLab Rick Nelson Outline Background: CEBAF / Jefferson Lab History, upgrade requirements & decisions Progress & problems along the way Present status Future directions & concerns
Detailed Design Report
Detailed Design Report Chapter 4 MAX IV Injector 4.6. Acceleration MAX IV Facility CHAPTER 4.6. ACCELERATION 1(10) 4.6. Acceleration 4.6. Acceleration...2 4.6.1. RF Units... 2 4.6.2. Accelerator Units...
Oak Ridge Spallation Neutron Source Proton Power Upgrade Project and Second Target Station Project
Oak Ridge Spallation Neutron Source Proton Power Upgrade Project and Second Target Station Project Workshop on the future and next generation capabilities of accelerator driven neutron and muon sources
ESS: The Machine. Bucharest, 24 April Håkan Danared Deputy Head Accelerator Division. H. Danared Industry & Partner Days Bucharest Page 1
ESS: The Machine Bucharest, 24 April 2014 Håkan Danared Deputy Head Accelerator Division H. Danared Industry & Partner Days Bucharest Page 1 2025 ESS construction complete 2009 Decision: ESS will be built
LLRF at SSRF. Yubin Zhao
LLRF at SSRF Yubin Zhao 2017.10.16 contents SSRF RF operation status Proton therapy LLRF Third harmonic cavity LLRF Three LINAC LLRF Hard X FEL LLRF (future project ) Trip statistics of RF system Trip
North Damping Ring RF
North Damping Ring RF North Damping Ring RF Outline Overview High Power RF HVPS Klystron & Klystron EPICS controls Cavities & Cavity Feedback SCP diagnostics & displays FACET-specific LLRF LLRF distribution
Towards an X-Band Power Source at CERN and a European Structure Test Facility
Towards an X-Band Power Source at CERN and a European Structure Test Facility Erk Jensen and Gerry McMomagle CERN The X-Band Accelerating Structure Design and Test-Program Workshop Day 2: Structure Testing
News from HZB / BESSY Wolfgang Anders at ESLS-RF Meeting September 2010 Trieste
News from HZB / BESSY Wolfgang Anders at ESLS-RF Meeting September 2010 Trieste Outline Status Klystrons / IOT Modifications of transmitters New LINAC for BESSY II Status BERLinPro HoBiCaT Extension --
RF Solutions for Science.
RF Solutions for Science www.thalesgroup.com State-of-the-art RF sources for your scientific needs High-power klystrons HIGH KLYSTRONS WITH RF LONG PULSE above 50 μs Thales has been one of the leading
Evaluation of Performance, Reliability, and Risk for High Peak Power RF Sources from S-band through X-band for Advanced Accelerator Applications
Evaluation of Performance, Reliability, and Risk for High Peak Power RF Sources from S-band through X-band for Advanced Accelerator Applications Michael V. Fazio C. Adolphsen, A. Jensen, C. Pearson, D.
RF Power Klystrons & 20 Year Look. R. Nelson 7/15/15
RF Power Klystrons & 20 Year Look R. Nelson 7/15/15 RF Power klystrons 8 x 13 kw klystrons Page 2 Why A klystron? Best (only) choice at the time - 1988 Easy to use: Input (drive), output (to CM), power
The basic parameters of the pre-injector are listed in the Table below. 100 MeV
3.3 The Pre-injector The high design brightness of the SLS requires very high phase space density of the stored electrons, leading to a comparatively short lifetime of the beam in the storage ring. This,
WG2 Group Summary. Chris Adolphsen Terry Garvey Hitoshi Hayano
WG2 Group Summary Chris Adolphsen Terry Garvey Hitoshi Hayano Linac Options Fest On Thursday afternoon, various experts summarized the linac baseline options. Although hard choices have yet to be made,
Linac 4 Instrumentation K.Hanke CERN
Linac 4 Instrumentation K.Hanke CERN CERN Linac 4 PS2 (2016?) SPL (2015?) Linac4 (2012) Linac4 will first inject into the PSB and then can be the first element of a new LHC injector chain. It will increase
High Rep Rate Guns: FZD Superconducting RF Photogun
High Rep Rate Guns: FZD Superconducting RF Photogun J. Teichert, A. Arnold, H. Büttig, D. Janssen, M. Justus, U. Lehnert, P. Michel, K. Moeller, P. Murcek, Ch. Schneider, R. Schurig, G. Staats, F. Staufenbiel,
The PEFP 20-MeV Proton Linear Accelerator
Journal of the Korean Physical Society, Vol. 52, No. 3, March 2008, pp. 721726 Review Articles The PEFP 20-MeV Proton Linear Accelerator Y. S. Cho, H. J. Kwon, J. H. Jang, H. S. Kim, K. T. Seol, D. I.
SUMMARY OF THE ILC R&D AND DESIGN
SUMMARY OF THE ILC R&D AND DESIGN B. C. Barish, California Institute of Technology, USA Abstract The International Linear Collider (ILC) is a linear electron-positron collider based on 1.3 GHz superconducting
RF considerations for SwissFEL
RF considerations for H. Fitze in behalf of the PSI RF group Workshop on Compact X-Ray Free Electron Lasers 19.-21. July 2010, Shanghai Agenda Introduction RF-Gun Development C-band development Summary
Development of Multiple Beam Guns for High Power RF Sources for Accelerators and Colliders
SLAC-PUB-10704 Development of Multiple Beam Guns for High Power RF Sources for Accelerators and Colliders R. Lawrence Ives*, George Miram*, Anatoly Krasnykh @, Valentin Ivanov @, David Marsden*, Max Mizuhara*,
Performance of a DC GaAs photocathode gun for the Jefferson lab FEL
Nuclear Instruments and Methods in Physics Research A 475 (2001) 549 553 Performance of a DC GaAs photocathode gun for the Jefferson lab FEL T. Siggins a, *, C. Sinclair a, C. Bohn b, D. Bullard a, D.
Current status of XFEL/SPring-8 project and SCSS test accelerator
Current status of XFEL/SPring-8 project and SCSS test accelerator Takahiro Inagaki for XFEL project in SPring-8 inagaki@spring8.or.jp Outline (1) Introduction (2) Key technology for compactness (3) Key
Conceptual Design for the New RPI 2020 Linac
!! SLAC&PUB&16137! Conceptual Design for the New RPI 2020 Linac RPI 2020 Linac Design Study Group October 29, 2014 Prepared for BMPC-KAPL under purchase order number 103313 by SLAC National Accelerator
STATUS OF THE SWISSFEL C-BAND LINEAR ACCELERATOR
Proceedings of FEL213, New York, NY, USA STATUS OF THE SWISSFEL C-BAND LINEAR ACCELERATOR F. Loehl, J. Alex, H. Blumer, M. Bopp, H. Braun, A. Citterio, U. Ellenberger, H. Fitze, H. Joehri, T. Kleeb, L.
Present Status and Future Upgrade of KEKB Injector Linac
Present Status and Future Upgrade of KEKB Injector Linac Kazuro Furukawa, for e /e + Linac Group Present Status Upgrade in the Near Future R&D towards SuperKEKB 1 Machine Features Present Status and Future
The LEP Superconducting RF System
The LEP Superconducting RF System K. Hübner* for the LEP RF Group CERN The basic components and the layout of the LEP rf system for the year 2000 are presented. The superconducting system consisted of
Status and Plans for PEP-II
Status and Plans for PEP-II John Seeman SLAC Particle and Particle-Astrophysics DOE HEPAP P5 Review April 21, 2006 Topics Luminosity records for PEP-II in October 2005 Fall shut-down upgrades Run 5b turn
The ALS RF systems, upgrades and ALS-U plans
The ALS RF systems, upgrades and ALS-U plans M. Betz*, K. Baptiste, Q. Du, M. Vinco, S. Virostek 06/27/2018, CWRF2018, Hsinchu, Taiwan * mbetz@lbl.gov Outline Structure of this talk RF systems in the Advanced
STATUS OF THE EUROPEAN XFEL CONSTRUCTING THE 17.5 GEV SUPERCONDUCTING LINEAR ACCELERATOR
STATUS OF THE EUROPEAN XFEL CONSTRUCTING THE 17.5 GEV SUPERCONDUCTING LINEAR ACCELERATOR Winfried Decking, DESY for the European XFEL Accelerator Consortium Up to 17.5 GeV SC Linac, 27000 pulses per second
The GRIFFIN Facility for Decay Spectroscopy at TRIUMF-ISAC
Canada s national laboratory for particle and nuclear physics Laboratoire national canadien pour la recherche en physique nucléaire et en physique des particules Gamma-Ray Infrastructure For Fundamental
PHIN. Report on the Development of a Radio-Frequency Photo Electron Source with Superconducting Niobium Cavity (SRF Gun Realization)
PHIN Report on the Development of a Radio-Frequency Photo Electron Source with Superconducting Niobium Cavity (SRF Gun Realization) J. Teichert, A. Arnold, H. Buettig, R. Hempel, D. Janssen, U. Lehnert,
A Cathode Development Cornell Cultera This scope includes all labor and purchases required produce photocathodes required by CBETA.
A1.01 PROJECT MANAGEMENT BNL/Cornell Michnoff A1.01.01 Milestones BNL/Cornell Michnoff This scope is a placeholder for all project high level milestones for NYSERDA. There is no cost or labor related to
ANKA RF System - Upgrade Strategies
ANKA RF System - Upgrade Strategies Vitali Judin ANKA Synchrotron Radiation Facility 2014-09 - 17 KIT University of the State Baden-Wuerttemberg and National Laboratory of the Helmholtz Association www.kit.edu
Technology Challenges for SRF Guns as ERL Sources in View of Rossendorf work
Technology Challenges for SRF Guns as ERL Sources in View of Rossendorf work, Hartmut Buettig, Pavel Evtushenko, Ulf Lehnert, Peter Michel, Karsten Moeller, Petr Murcek, Christof Schneider, Rico Schurig,
Availability and Reliability Issues for the ILC
Availability and Reliability Issues for the ILC SLAC Presented at PAC07 26 June 07 Contents Introduction and purpose of studies The availability simulation What was modeled (important assumptions) Some
ESS Linac WP8 Radio Frequency Systems and Test Facilities
ESS Linac WP8 Radio Frequency Systems and Test Facilities ESS/SPL Collaboration Meeting Lund, 29 June 2010 Roger Ruber (Uppsala University) for the ESS Linac RF Team ESS Linac WP8: RF Systems Outline Work
KEKB INJECTOR LINAC AND UPGRADE FOR SUPERKEKB
KEKB INJECTOR LINAC AND UPGRADE FOR SUPERKEKB S. Michizono for the KEK electron/positron Injector Linac and the Linac Commissioning Group KEK KEKB injector linac Brief history of the KEK electron linac
The Construction Status of CSNS Linac
The Construction Status of CSNS Linac Sheng Wang Dongguan branch, Institute of High Energy Physics, CAS Sep.2, 2014, Geneva Outline The introduction to CSNS accelerators The commissoning of ion source
TECHNICAL SPECIFICATION Multi-beam S-band Klystron type BT267
TECHNICAL SPECIFICATION Multi-beam S-band Klystron type BT267 The company was created for the development and manufacture of precision microwave vacuum-electron-tube devices (VETD). The main product areas
ARIEL e-linac Machine Protection System Requirements
TRIUMF Document-85636 ARIEL e-linac Machine Protection System Requirements Document Type: Requirement (Specifications) Release: 02 Release Date: 2013/06/17 Author(s): Shane Koscielniak Note: Before using
The Elettra Storage Ring and Top-Up Operation
The Elettra Storage Ring and Top-Up Operation Emanuel Karantzoulis Past and Present Configurations 1994-2007 From 2008 5000 hours /year to the users 2010: Operations transition year Decay mode, 2 GeV (340mA)
DEVELOPMENT OF A 10 MW SHEET BEAM KLYSTRON FOR THE ILC*
DEVELOPMENT OF A 10 MW SHEET BEAM KLYSTRON FOR THE ILC* D. Sprehn, E. Jongewaard, A. Haase, A. Jensen, D. Martin, SLAC National Accelerator Laboratory, Menlo Park, CA 94020, U.S.A. A. Burke, SAIC, San
Accelerator Division Plans:
Canada s National Laboratory for Particle and Nuclear Physics Laboratoire national canadien pour la recherche en physique nucléaire et en physique des particules Accelerator Division Plans: 2013-2020 Lia
A New 4MW LHCD System for EAST
1 EXW/P7-29 A New 4MW LHCD System for EAST Jiafang SHAN 1), Yong YANG 1), Fukun LIU 1), Lianmin ZHAO 1) and LHCD Team 1) 1) Institute of Plasma Physics, Chinese Academy of Sciences, Hefei, China E-mail
CLIC Feasibility Demonstration at CTF3
CLIC Feasibility Demonstration at CTF3 Roger Ruber Uppsala University, Sweden, for the CLIC/CTF3 Collaboration http://cern.ch/clic-study LINAC 10 MO303 13 Sep 2010 The Key to CLIC Efficiency NC Linac for
RF Power Generation II
RF Power Generation II Klystrons, Magnetrons and Gyrotrons Professor R.G. Carter Engineering Department, Lancaster University, U.K. and The Cockcroft Institute of Accelerator Science and Technology Scope
ESS Linac WP8 Radio Frequency Systems and Test Facilities
ESS Linac WP8 Radio Frequency Systems and Test Facilities ESS TAC Lund, 8 July 2010 Roger Ruber (Uppsala University) for the ESS Linac RF Team Outline Work Package description Objectives Organization Technical
Preparations for Installation, Testing and Commissioning based on Experience at CERN, SNS and Siemens
Preparations for Installation, Testing and Commissioning based on Experience at CERN, SNS and Siemens Eugène Tanke FRIB / MSU ESS Seminar, Lund, 6 March 2013 Outline Project Goal for the Accelerator Path
Status of the FAIR Project. Jürgen Henschel FAIR Project Leader / Technical Director GSI & FAIR
Status of the FAIR Project Jürgen Henschel FAIR Project Leader / Technical Director GSI & FAIR Finland France Germany India Poland Romania Russia Slovenia Sweden UK FAIR Strategic objectives FAIR phase
Linac upgrade plan using a C-band system for SuperKEKB
Linac upgrade plan using a C-band system for SuperKEKB S. Fukuda, M. Akemono, M. Ikeda, T. Oogoe, T. Ohsawa, Y. Ogawa, K. Kakihara, H. Katagiri, T. Kamitani, M. Sato, T. Shidara, A. Shirakawa, T. Sugimura,
SRF-gun Development Overview. J. Sekutowicz 17 th September, 2015 SRF15, Whistler, Canada
SRF-gun Development Overview J. Sekutowicz 17 th September, 2015 SRF15, Whistler, Canada Acknowledgment Many thanks to: A. Arnold, J. Hao, E. Kako, T. Konomi, D. Kostin, J. Lorkiewicz, A. Neumann, J. Teichert
The SPL at CERN. slhc. 1. Introduction 2. Description. 3. Status of the SPL study. - Stage 1: Linac4 - Stage 2: LP-SPL - Potential further stages
The SPL at CERN 1. Introduction 2. Description - Stage 1: Linac4 - Stage 2: LP-SPL - Potential further stages 3. Status of the SPL study slhc Roa Garoby for the SPL team 1. Introduction Motivation for
J/NLC Progress on R1 and R2 Issues. Chris Adolphsen
J/NLC Progress on R1 and R2 Issues Chris Adolphsen Charge to the International Linear Collider Technical Review Committee (ILC-TRC) To assess the present technical status of the four LC designs at hand,
Beam Loss Detection for MPS at FRIB
Beam Loss Detection for MPS at FRIB Zhengzheng Liu Beam Diagnostics Physicist This material is based upon work supported by the U.S. Department of Energy Office of Science under Cooperative Agreement DE-SC0000661.
Cyclotron Institute upgrade project. H. L. Clark, F. Abegglen, G. Chubarian, G. Derrig, G. Kim, D. May, B. Roeder and G. Tabacaru
Cyclotron Institute upgrade project H. L. Clark, F. Abegglen, G. Chubarian, G. Derrig, G. Kim, D. May, B. Roeder and G. Tabacaru On January 3, 2005 the Cyclotron Institute Upgrade Project (CIUP) began
STATUS AND COMMISSIONING RESULTS OF THE R&D ERL AT BNL*
STATUS AND COMMISSIONING RESULTS OF THE R&D ERL AT BNL* D. Kayran #,1,2, Z. Altinbas 1, D. Beavis 1, S. Belomestnykh 1,2, I. Ben-Zvi 1,2, S. Deonarine 1, D.M. Gassner 1, R. C. Gupta 1, H. Hahn 1,L.R. Hammons
DELIVERY RECORD. Location: Ibaraki, Japan
DELIVERY RECORD Client: Japan Atomic Energy Agency (JAEA) High Energy Accelerator Research Organization (KEK) Facility: J-PARC (Japan Proton Accelerator Research Complex) Location: Ibaraki, Japan 1 October
Beam Losses During LCLS Injector Phase-1 1 Operation
Beam Losses During LCLS Injector Phase-1 1 Operation & Paul Emma September 28, 2006 Radiation Safety Committee Review Scope of Phase 1 Operation Request for Three Operating Modes Operating Plan for Phase
Proton Engineering Frontier Project
Proton Engineering Frontier Project OECD Nuclear Energy Agency Fifth International Workshop on the Utilisation and Reliability of High Power Proton Accelerators (HPPA5) (6-9 May 2007, Mol, Belgium) Yong-Sub
STATUS OF THE SwissFEL C-BAND LINAC
STATUS OF THE SwissFEL C-BAND LINAC F. Loehl, J. Alex, H. Blumer, M. Bopp, H. Braun, A. Citterio, U. Ellenberger, H. Fitze, H. Joehri, T. Kleeb, L. Paly, J.-Y. Raguin, L. Schulz, R. Zennaro, C. Zumbach,
30 GHz Power Production / Beam Line
30 GHz Power Production / Beam Line Motivation & Requirements Layout Power mode operation vs. nominal parameters Beam optics Achieved performance Problems Beam phase switch for 30 GHz pulse compression
Solid State Modulators for X-Band Accelerators
Solid State Modulators for X-Band Accelerators John Kinross-Wright Diversified Technologies, Inc. Bedford, Massachusetts DTI X-Band Experience Developed and built two completely different NLC-class modulator
THE JLAB 12 GEV ENERGY UPGRADE OF CEBAF *
THE JLAB 12 GEV ENERGY UPGRADE OF CEBAF * Leigh Harwood (for the JLab 12 GeV project team) Thomas Jefferson National Accelerator Facility, Newport News, VA 23606 USA Abstract CEBAF at Jefferson Lab was
Jefferson Lab Experience with Beam Halo, Beam Loss, etc.
Jefferson Lab Experience with Beam Halo, Beam Loss, etc. Pavel Evtushenko with a lot of input from many experienced colleagues Steve Benson, Dave Douglas, Kevin Jordan, Carlos Hernandez-Garcia, Dan Sexton,
Commissioning the TAMUTRAP RFQ cooler/buncher. E. Bennett, R. Burch, B. Fenker, M. Mehlman, D. Melconian, and P.D. Shidling
Commissioning the TAMUTRAP RFQ cooler/buncher E. Bennett, R. Burch, B. Fenker, M. Mehlman, D. Melconian, and P.D. Shidling In order to efficiently load ions into a Penning trap, the ion beam should be
Concept and R&D Plans for Project X
Concept and R&D Plans for Project X Giorgio Apollinari 9 th ICFA Seminar SLAC, Oct. 2008 HB2008 Project X for Intensity Frontier Physics 1 Introduction Intensity Frontier: Needs and Physics Justification
PoS(EPS-HEP2015)525. The RF system for FCC-ee. A. Butterworth CERN 1211 Geneva 23, Switzerland
CERN 1211 Geneva 23, Switzerland E-mail: andrew.butterworth@cern.ch O. Brunner CERN 1211 Geneva 23, Switzerland E-mail: olivier.brunner@cern.ch R. Calaga CERN 1211 Geneva 23, Switzerland E-mail: rama.calaga@cern.ch