HESR 2 Electron Cooling Björn Gålnander The Svedberg Laboratory Uppsala University Midterm Review, DIRACsecondary-Beams December 8, 2006 GSI, Darmstadt.

Slides:



Advertisements
Similar presentations
Mitglied der Helmholtz-Gemeinschaft Beam Cooling at HESR in the FAIR Project 12 th September 2011 Dieter Prasuhn.
Advertisements

CIEMAT technological contributions to linear colliders Fernando ToralGandía, 3/12/2005.
Intensity Limits and Beam Performances in the High-Energy Storage Ring
SPEC(troscopy) -Trap Outline of talk Introduction – motivation for two cross continent traps Imperial College Group – areas of interest and expertise SPECTRAP/SPECTRAP’
High Energy Electron Cooling D. Reistad The Svedberg Laboratory Uppsala University.
The 2nd Tevatron Electron Lens and tests of a new electron gun in the framework of Beam-Beam Compensation project Yu. Alexahin, V. Kamerdzhiev, G. Kuznetsov,
Thomas Roser RHIC Open Planning Meeting December 3-4, 2003 RHIC II machine plans Electron cooling at RHIC Luminosity upgrade parameters.
Electron Cooling in the Recycler Ring Alexander Shemyakin (Fermilab/AD) May 31, 2005.
Electron Cooling Expected Performance & Construction.
Progress Report Günther RosnerNuPECC, Copenhagen, 15/6/121.
COULOMB ’05 Experiments with Cooled Beams at COSY A.Lehrach, H.J.Stein, J. Dietrich, H.Stockhorst, R.Maier, D.Prasuhn, V.Kamerdjiev, COSY, Juelich, I.Meshkov,
Proton Linac, Workshop, December 3 rd - 4 th, 2007 The FAIR Proton Linac Outline Requirements to Proton Linac Source, RFQ, DTL, RF Beam Dynamics.
Lecture on Targets A. Introduction scattering exp., gas target, storage ring B. Basics on Vacuum, Gas Flow etc pumps, molecular flow & tubes, T-shaped.
Particle Accelerators
Generation and Characterization of Magnetized Bunched Electron Beam from DC Photogun for MEIC Cooler Laboratory Directed Research and Development (LDRD)
Performance of the PANDA Barrel DIRC Prototype 1 GSI Helmholtzzentrum für Schwerionenforschung GmbH, Darmstadt 2 Goethe-Universität Frankfurt Marko Zühlsdorf.
1 Status of EMMA Shinji Machida CCLRC/RAL/ASTeC 23 April, ffag/machida_ ppt & pdf.
1 Plans for JINR participation at FAIR JINR Contributions: ● Accelerator Complex ● Condensed Baryonic Matter ● Antiproton Physics ● Spin Physics Physics.
Research in Particle Beam Physics and Accelerator Technology of the Collaboration IKP Forschungszentrum Jülich & JINR A.N. Parfenov for the Collaboration.
Valery Dormenev Institute for Nuclear Problems, Minsk
Task7: NUSTAR2 - Design and Prototype Construction of a Radiation-Resistant Magnet C. Mühle GSI Task leader: G. Moritz /GSI.
FAIR PROJECT COST BOOK. FAIR cost 1.2 mld euro 1. Civil construction and infrastructure 322Meuro 2. Accelerator systems 592 Meuro 3. Experimental facilities.
1 Flux concentrator for SuperKEKB Kamitani Takuya IWLC October.20.
EBIS ARR Jim Alessi May 4- 7, 2010 Technical Overview.
Overview of Electron Cooling Activities at FNAL Thomas Kroc Fermilab – Electron Cooling EIC 2004 March 15-17, 2004 Jefferson Lab.
Low Energy RHIC e - Cooling Meeting Minutes – 11/19/14 1. Cooling Section Magnets and Power Supplies –Most of power supplies will be from ERL (R. Lambiase).
Oliver Boine-Frankenheim FAIR accelerator theory group HESR 4: beam dynamics and collective effects Tasks: o Task 1: Detailed beam accumulation studies.
The FAIR* Project *Facility for Antiproton and Ion Research Outline:  FAIR layout  Research programs Peter Senger, GSI USTC Hefei Nov. 21, 2006 and CCNU.
HV Electron Cooling System for NICA Collider
Status of RF stations for NICA project MAC meeting october 2015.
ERHIC design status V.Ptitsyn for the eRHIC design team.
International Accelerator Facility for Beams of Ions and Antiprotons at Darmstadt Introduction and Status EU CNI contract Kick-off meeting, December 1-2,
Welcome and Presentation of Charge Steve Holmes Accelerator Advisory Committee ( May 10-12, 2005.
Design Optimization of MEIC Ion Linac & Pre-Booster B. Mustapha, Z. Conway, B. Erdelyi and P. Ostroumov ANL & NIU MEIC Collaboration Meeting JLab, October.
Project X RD&D Plan Beam Transfer Line and Recycler Injection David Johnson AAC Meeting February 3, 2009.
UK Neutrino Factory Meeting Front End Test Stand (F.E.T.S.) Engineering Status by P. Savage 22nd April 2009.
IDS-NF Accelerator Baseline The Neutrino Factory [1, 2] based on the muon storage ring will be a precision tool to study the neutrino oscillations.It may.
ORC process for reducing power consumption at the energy recovering electron cooler system for FAIR Kurt Aulenbacher, Helmholtz-Institut Mainz (HIM) 24.
Muon Collider R&D Plans & New Initiative 1.Introduction 2.Muon Collider Schematic 3.Conceptual Breakthrough 4.Ongoing R&D 5.Muon Collider Task Force 6.Muon.
LDRD: Magnetized Source JLEIC Meeting November 20, 2015 Riad Suleiman and Matt Poelker.
1 V. Kashikhin for ILC ALCPG 2007, FNAL Meeting October 23, 2007 Ring to Main Linac Magnets.
Lab. Director’s Meeting IHEP, Protvino, Russia, January 2008 D. Reistad, The Svedberg Laboratory, Uppsala University.
CLIC Stabilisation Day’08 18 th March 2008 Thomas Zickler AT/MCS/MNC/tz 1 CLIC Quadrupoles Th. Zickler CERN.
Overall Layout 1 IP2 64 m LEReC-I (1.6-2MeV): Gun to dump SRF gun used as a booster cavity.
Michał Matusiak Sławomir Wronka
Numerical Model of an Internal Pellet Target O. Bezshyyko *, K. Bezshyyko *, A. Dolinskii †,I. Kadenko *, R. Yermolenko *, V. Ziemann ¶ * Nuclear Physics.
The Polarized Internal Gas Target of ANKE at COSY
1 CTF3 CLEX day July 2006 CLEX day 2006 Introduction G.Geschonke CERN.
Development of High Current Bunched Magnetized Electron DC Photogun MEIC Collaboration Meeting Fall 2015 October 5 – 7, 2015 Riad Suleiman and Matt Poelker.
Emittance reduction by a SC wiggler in the ATF-DR September 16 th, 2009 Yannis PAPAPHILIPPOU and Rogelio TOMAS ATF2 weekly meeting.
Progress of Bunched Beam Electron Cooling Demo L.J.Mao (IMP), H.Zhang (Jlab) On behalf of colleagues from Jlab, BINP and IMP.
International Workshop on Beam Cooling and Related Topics COOL’15 29 September 2015 MPD SPD Transfer channels HV Electron Cooling System for NICA Collider.
Oleksiy Dolinskyy 23 rd October, FAIR layout of accelerators Collector Ring.
Contents: -GSI organization structures -Tasks of GSI (accelerator) -Status of evaluations / technical developments -Overview -Note : (only) accelerator.
PANDA Target Pipe Meeting Alfons Khoukaz Institut für Kernphysik, WWU Münster, Germany PANDA Target Pipe Meeting February 2013.
Study of a Superconducting Shield for a Transverse Polarized Target for PANDA 2012 Paris Helmholtz Institut Mainz Bertalan Feher, PANDA EMP Session Status.
ECOOL Meeting 03/26/10 1 Electron beam transport for FNAL electron cooler E-cooling is referred as “non-magnetized” OVERVIEW Material is taken from FNAL’s.
Oleksiy Dolinskyy December 1st, 2014
Status of HESR 18th March Gießen Dieter Prasuhn.
Calculation of Beam Equilibrium and Luminosities for
Acceleration of Polarized Protons and Deuterons at HESR/FAIR
Coupling Correction at the Australian Synchrotron
Requirements for the ELENA Electron Cooler
Status of the VEPP-2000 Collider Project at Novosibirsk
I Alexander Nass for the JEDI collaboration
Advanced Research Electron Accelerator Laboratory
18. Sept | Christian Böhme, I. Bekman, K. Reimers, V
JLEIC Collaboration meeting Spring 2016 Ion Polarization with Figure-8
HESR for SPARC 25th November FAIR MAC Dieter Prasuhn.
Plans for future electron cooling needs PS BD/AC
Presentation transcript:

HESR 2 Electron Cooling Björn Gålnander The Svedberg Laboratory Uppsala University Midterm Review, DIRACsecondary-Beams December 8, 2006 GSI, Darmstadt

Outline HESR Electron cooler Present project status Outlook

Antiproton momentum, 1.5 –15 GeV/c Cooling to counteract PANDA pellet target Electron cooling up to 8.9 GeV/c (4.5 MeV electron energy) Stochastic cooling above 3.8 GeV/c High Energy Storage Ring HESR is presently being designed in a consortium formed between FZ-Jülich, GSI and UU The electron cooler is the main responsibility of Uppsala University.

HESR Electron Cooler e-beam parameters:HESRFermilab Energy (MeV) Current (Amp)10.5 Solenoid field (T) Straightness (µrad rms)10200 The cooling force needs to be stronger than at Fermilab to counteract the internal target Higher magnetic field Better straightness Parameters for the HESR cooler:

Objective of Design Study Task 12, HESR 2: Electron cooling Description of work: construct prototypes of several critical parts of the system CELSIUS electron cooling system will be used as a test bench An important part of the work will be to construct prototypes of several critical parts of the system. The exact content of the prototyping work will be determined in the course of the study. The CELSIUS electron cooling system, which will then be taken out of use for its purpose at the CELSIUS ring, will be used as a test bench, and will be used to test electron beam diagnostic equipment as well as to make tests related to the high-voltage behaviour of the system. the problems to create the required quality of the magnetic field and stability of the high voltage will be investigated. Other aspects of the electron cooling system, including the method to charge the high-voltage terminal, the problems to create the required quality of the magnetic field and stability of the high voltage, the required ultra-high vacuum and the electron beam optics and stability of the electron beam transport will be investigated. final report In the final report all experience will be summarized, drawings will reflect the status of the component development, and a first design of a control system for this high power device will be suggested on the basis of the accumulated experience.

Present Project Plan Different sub-projects, responsible persons Design high-voltage column G. Norman, A Shemyakin Test prototype high-voltage solenoidG. Norman Design magnet system for electron beam transport K. Rathsman, D. Reistad Design and test magnet field measurement system T. Bergmark Design vacuum chamber, make prototype T. Bergmark, O. Byström Design and test prototype scraper B. Gålnander, T. Lofnes, Design electron gun and collector G. Norman Tests on high-voltage regulation at Uppsala Tandem Pelletron T. Bergmark

High Voltage Column Gun Collector Pellet chain HV solenoid High voltage solenoid prototype Cover delivered Coils mounted and delivered Feb. 2007

Sections of 3 metres (24 m total length) Pancake coils (normal conducting), individually adjustable to achieve 10 μrad rms straightness Magnet system Scraper and pick- up electrodes. Horizontal and vertical dipole windings. Deliverable 29, Report on solenoids and toroids, delayed Design revised, making coils smaller and less expensive, saving about 30 % of copper. Superconducting alternative is also considered

Measurement carriage and sensor head Prototypes are being manufactured Test will be performed during 2007 Magnetic Field Measurement System needed for pancake alignment Prototype test set-up Carriage prototype

Vacuum Chambers with rails for the Magnetic Field Measuring System Test tube of 1 m, two sections of 2.8 m will be delivered week 5, 2007

Scraper tests at the CELSIUS cooler Modification of CELSIUS cooler for scraper tests with electron beam Scraper prototype delivered next week Coils are being manufactured, delivered week 5, 2007

Outlook During spring 2007 several prototype tests will take place Autumn 2007, test evaluation and final report work No overall delay expected, HESR 2 will be finished by Feb However, the Deliverable D29, “Report on solenoids and toroids”, is delayed until 1 March, 2007, since this sub-project has been given more weight compared to the original planning.

Dag Reistad, Task Leader Torsten Bergmark Björn Gålnander, Deputy Tomas Johnson Tor Lofnes Gunnar Norman Olle Byström Stefan Johnson Tord Peterson Karin Rathsman Present group members Collaboration with IKP (Ziemann, beam dynamics), MSL (Danared, magnetic field calculations), BINP Parkhomchuk et al., Fermilab, A. Shemyakin et al.

Thank you!

4.5 MeV tank 8 MeV tank Layout

CELSIUS electron cooler Principle of electron cooling Low energy cooling is a well established technique. CELSIUS cooler was used to cool protons and ions up to 500 MeV/nucleon

Pick-up electrodes: To measure positions of antiproton and electron beams with resolution of 10 µm. Scrapers: To measure envelope oscillations of the electron beam. Pick-up Electrodes and Scrapers are combined in one unit