Imperial College 1 Plans and Costs Front End Test Stand Aim is to demonstrate a 60 mA, 2 ms, 50 pps chopped beam at 3 MeV RAL/ISIS (ION SOURCE, CHOPPER,

Slides:



Advertisements
Similar presentations
RFQ development for high power beams
Advertisements

The Front End Test Stand Collaboration ELECTROMAGNETIC DESIGN OF A RFQ FOR THE FRONT END TEST STAND AT RAL A. Kurup, A. Letchford The RAL front end test.
Imperial College 1 Progress at the RAL Front End Test Stand J. Pozimski Talk outline : Overview Ion source development LEBT RFQ Beam Chopper MEBT.
Final Design of a CW Radio-Frequency Quadrupole (RFQ) for the Project X Injector Experiment (PXIE)* Abstract: The Project X Injector Experiment (PXIE)
RAL Front End Test Stand Overview, Status and Plans RAL 12 th January 2005 Alan Letchford, ISIS Injector Group.
The RAL Front End Test Stand David Findlay ISIS Accelerator Division Rutherford Appleton Laboratory Oxfordshire, UK STVLTVS EST QVI ACCELERATORIBVS CVRANDIS.
C. Rossi – L4 Project Meeting 3 March 2011 Status and Plans of 3 MeV Test Stand.
Experience with Bunch Shape Monitors at SNS A. Aleksandrov Spallation Neutron Source, Oak Ridge, USA.
Front End Test Stand Klystron Commissioning Alan Letchford UKNF Plenary Meeting 22 nd April 2009.
UKNF OsC RAL – 21 & 22 June 2010 UKNF achievements & milestones J. Pozimski.
Proposal for the continuation of the Front End Test Stand Accelerator peer review panel August 2011 Alan Letchford STFC, Rutherford Appleton Lab. On behalf.
Proton driver front end test stand Plans and organisation for 2004–05 David Findlay ISIS Accelerator Division STVLTVS EST QVI ACCELERATORIBVS CVRANDIS.
1 Status of EMMA Shinji Machida CCLRC/RAL/ASTeC 23 April, ffag/machida_ ppt & pdf.
FETS H - Ion Source Experiments and Installation Scott Lawrie, Dan Faircloth, Alan Letchford, Christoph Gabor, Phil Wise, Mark Whitehead, Trevor Wood,
The RAL Front End Test Stand Alan Letchford CCLRC RAL ISIS Injector Group Joint Accelerator Workshop 28–29 March 2006.
F.E.T.S. RFQ Mechanical Design by Peter Savage 7 th January 2010.
HINS 6-Cavity Test 3 Month Plan Jan 12, Current Schedule 2-3 day shutdown scheduled to start Jan 18 (Wednesday) to upgrade BPM system and reinstall.
NuFACT06, Irvine 27. August 2006 The Front End Test Stand (FETS) is a collaborative project, between CCLRC (ISIS & ASTeC) and UK universities (Imperial.
REFERENCES [1] C.Y. Tan, FNAL Beams-doc-3646-v16, 2011 [2] V.N. Aseev, TRACK, the beam dynamics code, PAC05 [3] S. Kurennoy, LA-UR TRANSMISSION.
UKNF OsC RAL – 31 st January 2011 UKNF - Status, high lights, plans J. Pozimski.
FETS Progress UKNF OsC 21 st June 2010 Dan Faircloth Faircloth.
Status of the Front End Test Stand April Infrastructure R8 refurbished Laser lab under construction Vacuum system for first section delivered Stands.
January 5, 2004S. A. Pande - CAT-KEK School on SNS MeV Injector Linac for Indian Spallation Neutron Source S. A. PANDE.
Alexander Aleksandrov Oak Ridge National Laboratory
Simulations and Diagnostics for the Front End Test Stand Simon Jolly Imperial College 18 th April 2007.
Ding Sun and David Wildman Fermilab Accelerator Advisory Committee
Project X Injector Experiment (PXIE) Sergei Nagaitsev Dec 19, 2011.
ICFA-HB 2004 Commissioning Experience for the SNS Linac A. Aleksandrov, S. Assadi, I. Campisi, P. Chu, S. Cousineau, V. Danilov, G. Dodson, J. Galambos,
Overview and Status of the Fermilab High Intensity Neutrino Source R&D Program Giorgio Apollinari for Bob Webber.
Christoph Gabor, ASTeC HIPPI—Meeting (WP 5) 26 th – 28 th September 2007 Non—destructive transverse emittance measurement device The Front End Test Stand.
UK Neutrino Factory Meeting Front End Test Stand (F.E.T.S.) Engineering Status by P. Savage 22nd April 2009.
Developments of the FETS Ion Source Scott Lawrie.
3 MeV test stand measurement plans A. Lombardi for the LINAC4 team 10/01/2013BCC MeV test stand measurements1.
RFQ – Design, Components and Fabrication 1 We aim to design and manufacture a Radio Frequency Quadrupole (RFQ).
The RAL Front End Test Stand David Findlay for Alan Letchford Accelerator Division, ISIS Department Rutherford Appleton Laboratory HIPPI-05, Cosener’s.
NNP Non Neutral Plasma Physics Group Intense Beam Transport and Space Charge Compensation Strategies Oliver Meusel August th International Conference.
THE LINAC4 RFQ – Experience with Design, Fabrication and Tuning C. Rossi and the RFQ Project Team GSI Review – 20 November 2013.
LINAC4 emittance measurements BI Day Divonne, 24 th November 11/24/2011 B.Cheymol, E. Bravin, D. Gerard, U. Raich, F. Roncarolo BE/BI 1.
PS-ESS and LEBT State of the art Lorenzo Neri Istituto Nazionale di Fisica Nucleare Laboratori Nazionali del Sud.
The Front-End System Study of Project X Derun Li Center for Beam Physics Lawrence Berkeley National Laboratory March 16, 2010 Fermi National Accelerator.
D. Li, Project X Collaboration Meeting, Fermilab (October 25-27, 2011) Overview of Project X Frond-End R&D at LBNL Derun Li Project X Collaboration Meeting.
F Sergei Nagaitsev (FNAL) Webex meeting Oct ICD-2 chopper requirements and proposal #1.
ESS Front End diagnostic
3 MeV Measurements at Lianc4 1 Veliko Dimov (for the source and linac team) (J-B Lallement, J. Lettry, A. Lombardi, D. Fink)
1May, IPPP- Imperial College, London1 NF activities at IC (part II) m. apollonio.
Bunch Shape Monitor for HINS Wai-Ming Tam Project X Collaboration Meeting September 11, 2009.
The RAL Front End Test Stand
NICA injection complex status
BEAM DYNAMICS STUDIES for IFMIF-EVEDA ACCELERATORS
The RAL Front End Test Stand
Experience with beam instrumentation at Linac4
Laser-based Beam Diagnostics for the RAL Front End Test Stand
Linac4 M. Vretenar for the Linac4 design team
A. Martynov on behalf of accelerator division.
Physics design on Injector-1 RFQ
BUNCH LENGTH MEASUREMENT SYSTEM FOR 500 KV PHOTOCATHODE DC GUN AT IHEP
Status of the Front End Test Stand April 2007.
Optimisation of the FETS RFQ
LINAC4 commissioning plans etc.
Pulsed Ion Linac for EIC
Collective Effects and Beam Measurements in Particle Accelerators
Advanced Research Electron Accelerator Laboratory
commissioning and measurements
MEBT1&2 design study for C-ADS
Physics Design on Injector I
Mechanical Engineering progress for the Front End Test Stand
LCLS Injector/Diagnostics David H. Dowell, SLAC April 24, 2002
(Beam) Commissioning Plan
Front End Test Stand (F.E.T.S.) Engineering Progress Report
Simon Jolly UKNFIC Meeting 25th April 2008
Presentation transcript:

Imperial College 1 Plans and Costs Front End Test Stand Aim is to demonstrate a 60 mA, 2 ms, 50 pps chopped beam at 3 MeV RAL/ISIS (ION SOURCE, CHOPPER, RFQ beam dynamics, engineering) RAL/ASTeC (MEBT beam dynamics, RF cavities) Imperial College (LEBT & RFQ beam dynamics, DIAGNOSTICS, engineering) Warwick University (LEBT beam dynamics & solenoid field design) RFQ, 324 MHz, 3 MeV MEBT, chopper Ion source 70 mA, 2 ms, 10 % dc 3 Soleniod LEBT

Imperial College 2 Ion Source Purchase power supplies Prepare R8 Manufacture vacuum vessels Manufacture 4 additional top loading ion sources Design and build HV platform and cage Ancillary wiring Assemble ion source Commission ion source Characterise ion source

Imperial College 3 LEBT – Plans for the near Future Work already performed : Rough calculation of beam transport for different lens options based on available source emittances => 3 solenoid option choosen Detailed calculation of beam transport for 3 solenoid option based on available source emittances. => Results are quite sensitive to initial emittance and degree of SCC Detailed analysis of input emittance given by simulation of beam extraction and from emittance measurements (x,x’ and y,y’). => further information required – design & construction of a pepperpot emittance measurement device started. This year to do : Determination of source emittance using pepperpot method, transversal density distribution of the ions and the degree of space charge compensation Finalisation of particle dynamics calculation for the LEBT Final design of magnetic fields of the lenses Start of the mechanical Design of lenses and the LEBT

Imperial College 4 LEBT Determination of source emittance Particle dynamics Design of magnetic fields of the lenses Mechanical Design of lenses Mechanical Design of LEBT Determination of beam parameters at LEBT entrance Production of Lenses Assembly of LEBT Commisioning of LEBT Determination of beam parameters at RFQ entrance

Imperial College 5 Diagnostics - 1 What do we need to know ? Beam current - I(t) at the exit of : Ion source, LEBT, RFQ and Chopper (MEBT) => use of current transformers (conventional, non destructive) Degree of space charge compensation –  k /  uk at the exit of : Ion source, LEBT => use of residual gas ion spectroscopy (non destructive) => design of spectrometer started, grant application written Transversal beam density profile & Halo –  (x,y,t) at the exit of : Ion source, LEBT, RFQ and Chopper (MEBT) => use of flying wires (conventional, destructive) => use of laser detachment – “Lasertomography” (non destructive, design phase started, grant application required)

Imperial College 6 Diagnostics - 2 What do we need to know ? Transversal beam emittance –  (x,x’,y,y’,t) at the exit of : Ion source, LEBT, RFQ and Chopper (MEBT) => use of Allison scanner (destructive, available) => use of pepperpot (destructive, under construction) => use of laser detachment (non destructive, design phase) Longitudinal beam emittance – energy spread –  (z,z’,t) at the exit of : RFQ and Chopper (MEBT) => use of magnetic spectrometer (destructive, “available”) => use of laser detachment TOF (non destructive, design phase) To intensify the work on the beam diagnostics in the near future, D. Lee (Ph. D student, Imperial) has joined the team and will work on Laser tomography and it is planned that C. Gabor (Ph.D on beam diagnostics using laser neutralisation at Frankfurt University) will join in spring and work mainly on the laser based emittance scanner.

Imperial College 7 Diagnostics Determination of source emittance - Pepperpot Mechanical design & assembly of RGIES Design of laser based profile measurement Mechanical design & assebmly of laser based profile measurement Commisioning of laser based profile measurement Design of laser based emittance measurement Mechanical design of laser based emittance measurement Assembly laser  Commisioning of laser  Design & assembly of conventional diagnostics

Imperial College 8 RFQ Decision of frequency = 324 MHz Particle dynamic design (field level, Kilpatrick) => Length of RFQ Electro dynamic design of resonator and Endplates => Choice of RFQ type Electro dynamic design of tuners, couplers Design of models, production and tests of models Mechanical design of RFQ, Endplates, Positioners Mechanical design of tuner, couplers, etc Production of RFQ Production of tuner, couplers, and support Assembly of RFQ, test and commissioning

Imperial College 9 Chopper & MEBT Representative prototype lumped line test Representative prototype meander line test Pre-production meander line test Pre-production lumped line test RF cavity and quadrupole design MEBT RF design Chopper manufacture MEBT design MEBT construction Assembly of MEBT & Chopper - Commissioning

Imperial College 10 FETS Ion source LEBT DIAGNOSTICS RFQ CHOPPER MEBT Construction & Commissioning Design

Imperial College 11 Cost estimate Ion Source (Sources: £ , HV : £ 6 000, Mag. : £ , Anc. £ ) £ LEBT (Lenses : £ , Mech : £ , Anc. : £ ) £ RFQ (Models: £ , RFQ : £ , Anc. (Tuners…) : £ )£ MEBT & CHOPPER (Models: £ , Chopper : £ , MEBT : £ ,……)£ DIAGNOSTICS (Laser: £ ,  : £ ,  :£ , Conv : £ )£ RF (Klystron: £ , MEBT : £ 50000, Distr & Contr. : £ )£ Total =========== £ Already app. £ has been spent on RF, vacuum components, power supplies etc. Funded by : HP-NIS & HIPPI (EU), ASTeC, CCLRC, PPARC To be able to fulfil the tough time schedule additional workforce is required : 1)Project management for R8 refurbishment (50%) 2)Electrical engineer for refurbishment of R8 (50 %) 3)Engineer for RF power (additionally to Aaron)