HIGH INTENSITY ION BEAMS AT GANIL F. Chautard, September 6th, Cyclotron 2010 Lanzhou, China, september F. Chautard

Similar documents
HIGH INTENSITY ION BEAMS AT GANIL. ECOS facility meeting, may 16th 2013 GANIL - F. Chautard

OPERATION STATUS OF HIGH INTENSITY ION BEAMS AT GANIL

STATUS REPORT ON SPIRAL1 F. Chautard October 2 nd, 2007

Report on novel techniques for the production and selection of ECRionized radioactive ions beams

GANIL STATUS REPORT. B. Jacquot, F. Chautard, A.Savalle, & Ganil Staff GANIL-DSM/CEA,IN2P3/CNRS, BP 55027, Caen Cedex, France.

The SPIRAL2 Project and experiments with high-intensity rare isotope beams

RNB at GANIL from SPIRAL to SPIRAL 2

Status & Plans for the TRIUMF ISAC Facility

Review of ISOL-type Radioactive Beam Facilities

The SPIRAL 2 Project at GANIL

Introduction to REX-ISOLDE concept and overview of (future) European projects

Present ISOLDE facility Aims of HIE-ISOLDE upgrade First steps towards HIE-ISOLDE

P. Delahaye, F. De Oliveira, M. Fadil, H. Franberg - Delahaye, N. Lecesne, A. Pichard, MG Saint Laurent, JC Thomas, L. Serani, B.

Operation of the Coupled Cyclotron Facility at Michigan State University

SPIRAL-2 FOR NEUTRON PRODUCTION

GANIL/SPIRAL2 The adventure continues

SPIRAL 2 phase 1+/DESIR

Progress in April December 2007 Schedule in Jan. March 2008

Il progetto SPES: produzione di fasci di ioni radioattivi ai Laboratori Nazionali di Legnaro.

Performance of the ANL ECR Charge Breeder. with Low Mass Beams. Investigations with low mass species. Review of charge breeder design

Recent SPIRAL 2 News (1)

CHAPTER VI RIB SOURCES

ISCC meeting, February 16, ISCC meeting, February 16, ISOLDE ISOLDE scientific scientific coordinator s s report

Heavy Ion Accelerators for RIKEN RI Beam Factory and Upgrade Plans. Upgrade Injector

SPES Conceptual Design Report

The accelerators at LNS - INFN and diagnostics aspects of the radioactive beams

two-proton radioactivity discovery of two-proton radioactivity experimental results with TPC s future studies

TAMU-TRAP facility for Weak Interaction Physics. P.D. Shidling Cyclotron Institute, Texas A&M University

Development of the UNILAC towards a Megawatt Beam Injector

Developments of the RCNP cyclotron cascade

DEVELOPMENT OF JINR FLNR HEAVY-ION ACCELERATOR COMPLEX IN THE NEXT 7 YEARS

Charge State Breeding for the. at TRIUMF

Operational Experience in PIAVI-ALPI Complex. E. Fagotti INFN-LNL

HIRFL STATUS AND HIRFL-CSR PROJECT IN LANZHOU

Recent Results from ISOLDE and new Opportunities with HIE- ISOLDE

Estimates of ISOL beam intensities for fast neutron induced fission fragments. P. Delahaye Contributions M. Fadil, X. Ledoux

The Spiral 2 Project


Progress of SPIRAL2 project

Perspectives in High Intensity Heavy Ion Sources for Future Heavy Ion Accelerators. L. Sun

discovery of two-proton radioactivity future studies Bertram Blank, CEN Bordeaux-Gradignan Hirschegg, january 2008

Recent developments at ISOL-based facilities. Piet Van Duppen KU Leuven, Belgium

The Facility for Rare Isotope Beams

Beta-decay. studies with proton-rich. rich nuclei. Bertram Blank. Université Bordeaux 1 / CENBG

Activity Report on ANPhA (in place of Dong-Pil Ming)

GANIL / SPIRAL1 / SPIRAL2

SPES BEAM TABLES. How to read them

Bertram Blank CEN Bordeaux-Gradignan. Germanium detector calibration experimental studies: decay mirror decay future work

SPIRAL 2 Commissioning Status

Coulomb excitation experiments at JAEA (Japan Atomic Energy Institute)

Present status of RIBF accelerators at RIKEN

Status of the EBIT in the ReA3 reaccelerator at NSCL

Materials issues in design, construction and operation of FRIB

Overview. Scientific Case

THE ADVANCEMENT OF SPIRAL 2 PROJECT

This is an electronic reprint of the original article. This reprint may differ from the original in pagination and typographic detail.

Ion Beam Cocktail Development and ECR Ion Source Plasma Physics Experiments at JYFL

arxiv: v1 [physics.ins-det] 9 Apr 2018

MIDAS-NA: MInimization of Destructive plasma processes in ECR ion source

The RI Beams from the Tokai Radioactive Ion Accelerator Complex (TRIAC)

NSCL and Physics and Astronomy Department, Michigan State University Joint Institute for Nuclear Astrophysics

Recent development in ECR sources

Future Plans at GANIL UK Participation in SPIRAL 2

Report on PIAVE G. Bisoffi

Beam Diagnostics for RIBF in RIKEN

Capabilities at the National Superconducting Cyclotron Laboratory. Sean Liddick NDNCA workshop, May 26-29, 2015

Novel radioactive ion-beam production techniques Report on new schemes and novel laser-ion-source techniques

University of Groningen. Extraction and transport of ion beams from an ECR ion source Saminathan, Suresh

RCNP cyclotron facility

The Accelerator System for ReA3 the New Re-accelerated RIBs Facility at MSU

2. Acceleration Scheme

SPESProject. Gianfranco Prete LNL-INFN On behalf of the SPES Collaboration. 30 September -05 October 2012 INFN Laboratori Nazionali di Legnaro

NSCL Operations and ReAcclerator Facility at MSU. Daniela Leitner Michigan State University

Structure of MLL Tandem operation Experiments

SPES Project. Selective Production of Exotic Species. Gianfranco Prete LNL-INFN On behalf of the SPES Collaboration. γ δ. α β

Status of RAON and LAMPS in Korea

Progress of RAON Heavy Ion Accelerator Project in Korea

Accelerators for the Advanced Exotic Beam Facility

Bertram Blank CEN Bordeaux-Gradignan. Germanium detector calibration experimental studies: b decay mirror b decay future work

Nuclear Physics at the Lanzhou Storage Ring

The heavy ion irradiation facility at KVI-CART

EXPERIENCE WITH STRIPPING HEAVY ION BEAMS

UPGRADE AND COMMISSIONING OF THE PIAVE-ALPI ECR INJECTOR AT LNL

New beams from the SPIRAL 1 upgrade: status and perspectives

Beams from the Super Separator Spectrometer

Radioactive Ion Beams for Astrophysics

EBSS: Hands-on Activity #8. Operation of an electromagnetic isotope separator (EMIS) Dan Stracener Jon Batchelder

Physics opportunities with an active target in Italy. T. Marchi, IKS-KU Leuven also on behalf of INFN - NUCLEX collaboration

ANURIB Advanced National facility for Unstable and Rare Ion Beams

Low Background Counting At SNOLAB

ECR Ion sources for radioactive ion beam production

The AGATA campaign at GANIL. Joint LEA COLLIGA and LEA COPIGAL Workshop January 2014

Opportunities to study the SHE production mechanism with rare isotopes at the ReA3 facility

THE ACCULINNA AND ACCULINNA-2 RADIOACTIVE ION BEAM FACILITY AT DUBNA: STATUS AND PERSPECTIVES

TARGETS AND ION SOURCES DEVELOPMENT AT ISAC-TRIUMF*

Cross-section Measurements of Relativistic Deuteron Reactions on Copper by Activation Method

CHAPTER VI RIB SOURCES

Nuclear Structure Studies along the Z=28 and 82 Closed Proton Shells using Radioactive Ion Beams

Gianfranco Prete On behalf of SPES collaboration

ACTIVATION ANALYSIS OF DECOMISSIONING OPERATIONS FOR RESEARCH REACTORS

Transcription:

HIGH INTENSITY ION BEAMS AT GANIL F. Chautard, September 6th, 2010

OUTLINE Operation modes at GANIL Statistics Stable beams Exotic beams ISOL In Flight Beam developments Stable beams Exotic beams Machine developments Diagnostics and purification Foreseen operation with SPIRAL2

Multi-Beam Operating Mode: 5 experiments in parallel with stable beams 2 3 4 High Energy Beam GANIL [24, 95] MeV/u 4 3 2 SME: after a stripper, one charge state is sent to the D1 room => the medium energy exit [3.7, 13.7] MeV/u Stripper 5 LIRAT <34keV/ u α spectro 1 IRRSUD: low energy beam irradiation line 1 [0.3, 1.0] MeV/u

SPIRAL1 operating mode: 4 experiments in parallel High Energy Exotic Beam [1.2, 25] MeV/u3 4 4 3 2 Stripper α spectro 1

Radioactive ion beams with «ISOL» method since 2001 (W<25MeV/u) GANIL heavy ion beams up to 95 MeV/u onto a thick carbon target radioactive atoms Acceleration and Purification in the compact cyclotron CIME

Radioactive ion beams with «In Flight» method (W<95 MeV/u) CLIM 2kW beam onto rotating target

Multi-beam operating mode: Beam schedule

Running Statistics 2001-2009 Availability over 9 years: 83% Availability in 2009 : 94% GANIL per year: 30 weeks / 4 periods: 5000h of operating time. Leading to 9000h of beam time for users (multi-beam effect) SPIRAL1 since 2001: 9755h of exotic beams. More than 30 exotic beams

Repartition beam time between GANIL and SPIRAL1

From 2001 to 2009

From 2001 to 2009

From 2001 to 2009

Intense Primary beams http://pro.ganil-spiral2.eu/users-guide/accelerators/available-stable-ion-beams-atganil/view Imax 10 Beams 13 Emax Pmax [mae] [pps] [MeV/u] [W] In 1995, a High Intensity Transport safety system (THI) was studied and validated in 1998 in order to send a several kilowatt beam to the experimental rooms. Used with Spiral 12 C 6+ 19 2 95 3 600 Planned 13 C 6+ 18 2 75 2 900 X 14 N 7+ 15 1.6 95 3 400 Planned 16 O 8+ 16 1 95 3 000 X 18 O 8+ 2.3 0.18 75 400 20 Ne 10+ 15.7 1 95 2 400 X 22 Ne 10+ 15 1 80 2 600 Planned 24 Mg 12+ 20 1 95 3 800 Planned 36 S 16+ 11 0.43 77.5 1 900 X 36 Ar 18+ 24 0.8 95 4 600 Planned 48 Ca 19+ 4.5 0.15 60 700 X 58 Ni 26+ 4 0.1 75 700 76 Ge 30+ 3.5 0.07 61 500 78 Kr 34+ 7 0.13 70 1 200 X 124 Xe 44+ 2 0.03 50 300

Intense Primary beams 2.10 13 pps Safety limitatio n reached Beam Imax [μae] [pps] Emax <2 10 13 [MeV/A] Pmax [W] <6kW 12 C 6+ 18 1.9 10 13 95 3 200 Used with Spiral 13 C 6+ 18 2. 10 13 80 3 000 X 14 N 7+ 15 1.4 10 13 95 3 000 16 O 8+ 16 10 13 95 3 000 X 18 O 8+ 17 10 13 76 3 000 X 20 Ne 10+ 17 10 13 95 3 000 X 22 Ne 10+ 17 10 13 79 3 000 36 S 16+ 6.4 2.5 10 12 77.5 1100 X Possible improveme nt 36 Ar 18+ 16 5.5 10 12 95 3 000 X 40 Ar 18+ 17 6. 10 12 77 3 000 48 Ca 19+ 4-5 1.3 10 12 60 600-700 X 58 Ni 26+ 5 1.2 10 12 77 860 76 Ge 30+ 5 1.2 10 12 60 760 78-86 Kr 34+ 7.5 1.4 10 12 70 1200 X 124 Xe 46+ 2 2.7 10 11 53 300

R&D: Intense Primary beams It goes with an improvement of the oven for the metallic ion production. First, a modified version of the existing micro-oven at high temperature (1700 C max) to a higher capacity oven but at a lower average temperature (1100 C max). Second, build a large capacity and high temperature oven. Above the 1700 C temperature limit, development with induction oven is foreseen. Those developments are coherent with the beam needs expressed by the SPIRAL2 project for the production of 48Ca 16+ and 58Ni 19+.

R&D: Intense Primary beams Beams Imax [μae] 10 13 [pps] Emax [MeV/u] Pmax [W] Used with Spiral 64 Zn 28+ 1.2 0.03 74 - - 127 I 45+ 0.23 0.03 49.5 - - 133 Cs 47+ 0.08 0.01 49.3 - - 238 U 34+ 0.04 0.01 7.8 - - The developments are driven by physics experiments foreseen by the GANIL Physics Advisory Committee

Exotic Beam Production : ISOL (SPIRAL1) http://pro.ganil-spiral2.eu/users-guide/accelerators/spiralbeams ions W W [pps] ion [MeV/u] [MeV/u] [pps] 6He 3.8 2.8 10 7 20F 3 1.5 10 4 6He 2.5 3.7 10 7 17Ne 4 4.10 4 6He 5 3.10 7 24Ne 4.7 2.10 5 6He LIRAT (<34 kev/u) 2.10 8 24Ne 7.9 1.4 10 5 6He 20 5.10 6 24Ne 10 2 105 8He 3.5 1.10 5 26Ne 10 3.10 3 8He 15.5 1.10 4 31Ar 1.45 1.5 8He 15.4 2.5 10 4 33Ar 6.5 3.10 3 8He 3.5 6.10 5 35Ar 0.43 4.10 7 8He 3.9 8.10 4 44Ar 10.8 2.10 5 14O 18 4.10 4 44Ar 3.8 3.10 5 15O 1.2 1.7 10 7 46Ar 10.3 2.10 4 19O 3 2.10 5 74Kr 4.6 1.5 10 4 20O 3 4.10 4 74Kr 2.6 1.5.10 4 20O 4 4.10 4 75Kr 5.5 2.10 5 18Ne 7 1.10 6 76Kr 4.4 4.10 6 18F 2.4 2 104

Foreseen Machine Developments A GANIL 2015 committee was created to identify the strength and weakness of the present facility in the close future range. One of the main recommendations is to extend the radioactive ion beam variety available from the SPIRAL1 facility.

ISOL Production Limitation with the actual Nanogan 3 source 3,3kW primary beam 0 V - 650 V Nanogan III 10GHz ECR ion source Insulator Polarized coaxial copper tube Plasma chamber Radioactive beam Insulators UHF Tunable cavity with piston 3 kw Graphite Target Rectangular wave guide Cold transfer tube = Gazeous elements

ISOL Production Limitation with the actual Nanogan 3 source Actual GANIL group project constituted Overview of source developments for SPIRAL1: done

Possible New Beams from graphite targets with SPIRAL1 design compatible sources Surface Ionisation FEBIAD Nanogan ECRHD Mass limited to <~90 for various technical reasons, can be extended in the future. The developments should be driven by physics cases (LoI)

Constraints for development of radioactive ion sources Limited volume for new ECR

R&D strategy Ongoing projects priority : 1. 1+ compact source type FEBIAD 2. Charge breeder in CIME injection line 3. 1+/N+ compact sources : ECRHD (collaboration with PANTECHNIK)

1+ FEBIAD source (type VADIS ISOLDE) (Forced Electron Beam Induced Arc Discharge) Thin window Transfer line Plasma chamber 1+ First mechanical design ok Thermal calculations ongoing Extraction optics ongoing Non selective source : Mg, Ca, Sc, Cr, Mn, Co, Ni, Cu, Zn, Ga, Ce, As, Se, Al On line beam tests: fall of 2010 But no acceleration by CIME (Q/A too low)

Coupling a charge breeder to a 1+ source Experimental area New Charge breeder ISOLDE charge breeder 1+ source = compact to fit in the cave Breeder outside cave = accelerate beams in CIME

SPIRAL1 Beam Purity Improvement Even with a selective source, the exotic beam might be polluted (18F, 14O ) Purification SPIRAL choices: Stripping Energy loss in degrader Vertical deflector Experimental area

SPIRAL1 Beam Purity Improvement (Presentation P. Bertrand and A. Savalle : THM1CIO01) Even with a selective source, the exotic beam might be polluted (18F, 14O ) Purification SPIRAL choices: Stripping Energy loss in degrader Vertical deflector for variable frequency

GANIL: HISTORY The first beam of GANIL was sent to an experimental room in 1983. Since then, the variety and intensity of the ion beams available always increased. Progress in the source domain make possible to potentially transport of kw beams. The cyclotrons and the beamlines had to be upgraded to handle such a new constraint.

SPIRAL: HISTORY In 2001, the first exotic beam of SPIRAL1 was produced with the existing cyclotron used as a driver. The exotic ion production was then depending on the target power resistance and the increase of the primary beam power. This leading to the developments of 3 kw target of SPIRAL1 and meanwhile increase the primary beam power within the safety rules (<6kW).

GANIL-SPIRAL: Looking towards the Future The variety of the ion species is now the main concern at GANIL. The present selective ECR ion source should be replaced by an alternative one in order to reach metallic beams. The great care given to the maintenance of the 27 year old machine allows us to still expect to increase its performances and be competitive until the SPIRAL2 arrival.

GANIL/SPIRAL1/SPIRAL2 facility Neutrons For Science S3 separatorspectrometer DESIR Facility low energy RIB Low-energy RIB 1 from SPIRAL1 Stable-ion beams Radioactive-ion beams GANIL/SPIRAL 1 today

GANIL potentiality 44 weeks for SPIRAL2 and 36 weeks for GANIL a year are foreseen SPIRAL 2 LINAG Maintenance Jan. Feb. March April May June July Aug. Sept. Oct. Nov. De c. AEL OTHER TARGETS Ucx target GANIL/SPIRAL 1 GANIL Maintenance GANIL exp. area DESIR GANIL EXPERIMENTAL AREA CASEMATE SPIRAL1 GANIL exp. area LIRAT or DESIR CSS1 solo SME IRRSUD

Thank you for your attention