Stable and Rare Beams at the Texas A&M Cyclotron Ins:tute

Similar documents
Stable & Radioac.ve Ion Beams at the Texas A&M University Cyclotron Ins7tute. S. Yennello LECM 2015

Neutron-rich rare isotope production with stable and radioactive beams in the mass range A ~ at 15 MeV/nucleon

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

Physics with stopped beams at TRIP-TRAP Facility. P.D. Shidling Cyclotron Institute, Texas A&M University

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

The Ring Branch. Nuclear Reactions at. Mass- and Lifetime Measurements. off Exotic Nuclei. Internal Targets. Electron and p. Experiments: Scattering

Isoscaling, isobaric yield ratio and the symmetry energy: interpretation of the results with SMM

Production and Separation of Radioactive Beams. Mg and 20 Na with MARS

The Super-FRS Project at GSI

First RIA Summer School on Exotic Beam Physics, August 12-17, Michael Thoennessen, NSCL/MSU. Lecture 1: Limits of Stability 1 A = 21

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

Progress in measuring GMR in unstable nuclei: Decay detector calibration and inverse reaction experiment. J. Button, Y.-W. Lui, and D.H.

The Facility for Rare Isotope Beams

Review of ISOL-type Radioactive Beam Facilities

Noncentral collisions

MARS status report for : Development of rare isotope beams of 25 Si, 6 He, 9 Li, 23 Si, and 22 Si

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

Heavy&ion*collisions:*Direct*and*indirect* probes*of*the*density* and*temperature*dependence*of*e sym * * S. Yennello Texas A&M University

THE SUPER-FRS PROJECT AT GSI

Physics with Exotic Nuclei

Why Make Rare Isotopes?

Actinide Target Station & 238

HiRA: Science and Design Considerations

Extreme Light Infrastructure - Nuclear Physics ELI - NP

Minicourse on Experimental techniques at the NSCL Fragment Separators

Heavy-ion reactions and the Nuclear Equation of State

Status of the EBIT in the ReA3 reaccelerator at NSCL

FAIR. Reiner Krücken for the NUSTAR collaboration

SPIRAL-2 FOR NEUTRON PRODUCTION

Experimental Study of Stellar Reactions at CNS

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

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

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

Developments of the RCNP cyclotron cascade

Study of multinucleon transfer (MNT) reactions of 136 Xe Pt for production of exotic nuclei

Introduction to RAON & Detector Systems for Nuclear Physics

Isospin influence on Fragments production in. G. Politi for NEWCHIM/ISODEC collaboration

Indirect methods for nuclear astrophysics: reactions with RIBs. The ANC method

KEK isotope separation system for β-decay spectroscopy of r-process nuclei

Materials issues in design, construction and operation of FRIB

NUSTAR and the status of the R3B project at FAIR

Searching for high-spin toroidal isomers in collisions induced by α-conjugate nuclei

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

Radiation safety of the Danish Center for Proton Therapy (DCPT) Lars Hjorth Præstegaard Dept. of Medical Physics, Aarhus University Hospital

Utilization of Intense Rare Isotope Beam at KoRIA

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

Nuclear Physics using RadioIsotope Beams. T. Kobayashi (Tohoku Univ.)

Lawrence Berkeley National Laboratory Lawrence Berkeley National Laboratory

Restoration of Rl-beams from a projectile fragment separator by Laser Ionization gas Catcher -PALIS-

Density and temperature of fermions and bosons from quantum fluctuations

How much cooler would it be with some more neutrons?

Probing the evolution of shell structure with in-beam spectroscopy

THE DESIGN AND COMMISSIONING OF THE ACCELERATOR SYSTEM OF THE RARE ISOTOPE REACCELERATOR ReA3 AT MICHIGAN STATE UNIVERSITY*

GANIL / SPIRAL1 / SPIRAL2

Status & Plans for the TRIUMF ISAC Facility

Experimental Approach to Explosive Hydrogen Burning with Low-Energy RI Beams

RNB at GANIL from SPIRAL to SPIRAL 2

High-resolution Study of Gamow-Teller Transitions

arxiv: v1 [nucl-th] 14 Mar 2008

EVOLUTION OF SHELL STRUCTURE

How Much Cooler Would It Be With Some More Neutrons? Asymmetry Dependence of the Nuclear Caloric Curve

Characterization of quasi-projectiles produced in symmetric collisions studied with INDRA Comparison with models

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

Rare Isotope productions from Projectile Fragmentation. Ca + Be. Betty Tsang March 27, 2008

Reaction rates in the Laboratory

The origin of heavy elements in the solar system

Development of a gas cell-based laser ion source for RIKEN PALIS

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

Production of superheavy elements. Seminar: Key experiments in particle physics Supervisor: Kai Schweda Thorsten Heußer

PHYSICAL PROBLEMS TO BE CLARIFIED WITH THE USE OF RADIOACTIVE ION BEAMS OF THE ACCULINNA-2 SEPARATOR

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

14 Supernovae (short overview) introduc)on to Astrophysics, C. Bertulani, Texas A&M-Commerce 1

Bhas Bapat MOL-PH Seminar October Ion Matter Interactions and Applications


STORAGE RINGS FOR RADIO-ISOTOPE BEAMS

University of Groningen. Study of compression modes in 56Ni using an active target Bagchi, Soumya

Compound and heavy-ion reactions

Hydrogen and Helium Burning in Type I X-ray Bursts: Experimental Results and Future Prospects. Catherine M. Deibel Louisiana State University

Experimental Nuclear Astrophysics: Lecture 1. Chris Wrede National Nuclear Physics Summer School June 19 th, 2018

A Comparison between Channel Selections in Heavy Ion Reactions

Spallation, multifragmentation and radioactive beams

Polarised Gas Targets and Polarised Ion Sources for Accelerators

Dedicated Arrays: MEDEA GDR studies (E γ = MeV) Highly excited CN E*~ MeV, 4 T 8 MeV

Selected Topics in Physics a lecture course for 1st year students by W.B. von Schlippe Spring Semester 2007

Kirby W. Kemper. Current and new facilities for radioactive beam physics

Spectroscopy of light exotic nuclei using resonance scattering in inverse kinematics.

Charge Exchange and Weak Strength for Astrophysics

2. Acceleration Scheme

GANIL/SPIRAL2 The adventure continues

Risultati Recenti sulla Sperimentazione con Fasci di Ioni Radioattivi Leggeri in Italia Marco Mazzocco

An Introduction to. Ion-Optics. Series of Five Lectures JINA, University of Notre Dame Sept. 30 Dec. 9, Georg P. Berg

Lecture 15: Nuclear Reactions. RELEVANCE: Basic Research reaction mechanisms structure exotic nuclei

Nuclear Reactions. RELEVANCE: Basic Research reaction mechanisms structure exotic nuclei

A new storage ring for ISOLDE

CHEM 312: Lecture 9 Part 1 Nuclear Reactions

Proximity Decay and Tidal Effects

DEVELOPMENT OF FFAG AT KYUSYU UNIVERSITY

Dipole Response of Exotic Nuclei and Symmetry Energy Experiments at the LAND R 3 B Setup

Operation of the Coupled Cyclotron Facility at Michigan State University

Clusterization and the Symmetry Energy in Low Density Nuclear Matter

Transcription:

Stable and Rare Beams at the Texas A&M Cyclotron Ins:tute S. Yennello T-REX Interna'onal Symposium on Super Heavy Nuclei 2015

Facility Layout K500 Commissioned 1989 88 Commissioned 1967, Decommissioned 1985 K150 Recommissioned 2008 (Upgrade Project)

3 Modes of Stable Beam OperaPon 1) K500 K500 experimental areas

3 Modes of Stable Beam OperaPon 1) K500 K500 experimental areas 2) K150 K500 experimental areas

3 Modes of Stable Beam OperaPon 1) K500 K500 experimental areas 2) K150 K500 experimental areas 3) K500 + K150 K500 experimental areas (beams cannot cross!)

100.0 K500 CYCLOTRON + ECR 72 MeV/u deuterons (max 80 MeV/u) 12 MeV/u 238 U E/A (MeV/Nucleon) 10.0 1.0 0 50 100 150 200 250 ATOMIC MASS NUMBER

40 MeV protons (max 55 MeV) 6.3 MeV/u 84 Kr

Nuclear Science Programs at TAMU Nuclear Astrophysics (Capture γ rates) Fundamental InteracPons (0 + è 0 + β- decay Correla:ons) Nuclear Dynamics and Thermodynamics (caloric curves, N/Z effects ) Heavy element chemistry (Produc:on of nuclei with Z>100...) Nuclear Incompressibility (Giant Monopole Resonance)

Present Research Program Program Project Leaders Nuclear Giant Resonances Youngblood Incompressibility Fundamental 0 + 0 + β decay Hardy, Melconian InteracPons (Gagliardi, Tribble) Astrophysics Capture γ rates Rogechev, Tribble (Gagliardi) RHI STAR Mioduszewski, Gagliardi (Tribble) Nuclear Dynamics ReacPons with exopc beams Natowitz, Yennello and Thermodynamics ProperPes of hot nuclei Nuclear Structure Resonances in light exopc nuclei Rogechev Heavy elements ProducPon of nuclei with Z>100 Folden Theory ReacPon Dynamics Bonasera Nuclear Response Shlomo Few- body systems Nuclear astrophysics Zhanov RelaPvisPc Heavy Ion ReacPons Fries, Ko, Rapp

Applied Physics Programs at TAMU Single Event Effects (Chip tes:ng) Medical Isotope ProducPon (At211, high E - α) Broad Beam IrradiaPon (Ultrafine filters)

Isotope produc:on and research ac:vi:es

MARS Recoil Separator Dispersive Image Final Achroma:c Image Q5 D3 Q4 Wien Filter D2 Q3 D1 Q2 Q1 Produc:on Target Rotatable Arm Reac:on Angle: 0-12 o (selectable) MARS Acceptances: Anglular: 9 msr Momentum: 4 %

Developing accelerated RIBs will benefit all of these programs! Upgrade Project T-REX T-REX TAMU Reaccelerated Exo:cs

Two Methods for making RIBs 1- Heavy Ion Guide Deep inelas:c scafering of intense heavy ion beams at 12-15 MeV/u on neutron rich targets Big Sol used as front end (clean up) separator Degrader system and ANL (He) gas catcher, thermalize RIBs, charge 1+ state Ortho- TOF used for diagnos:cs and beam tuning LEBT transport RIBS to CBECR ion source First RIB: 38 S via 40 Ar è 64 Ni T-REX

Collisions between Heavy Ions at Fermi Energies (10 < E/A < 40MeV) Approaching phase: b Projectile (Z p,a p ) θ Target (Z t,a t ) Neutrons Protons b: impact parameter θ: scattering angle Grazing angle, θ gr : nuclei in touching configuration Overlap (interaction) phase: exchange of nucleons: Deep Inelastic Transfer (DIT) Model L. Tassan-Got and C. Stephan, Nucl. Phys. A 524, 121 (1991) excited projectile-like fragment (PLF) or quasi-projectile excited target-like fragment (TLF) or quasi-target T-REX

Nuclide cross sections from: 40 Ar (15 MeV/A) + 64 Ni, 58 Ni, 27 Al K (+1p) Cl (-1p) P Ar S (-2p) Si 40 Ar + 64 Ni 40 Ar + 58 Ni 40 Ar + 27 Al Largest cross secpons with the n- rich 64 Ni target 38 S first RIB of interest from HIG (-3p) (-4p) T-REX

Gas Catcher Being Installed at TAMU T-REX

Two Methods for making RIBs 2- Light Ion Guide Intense (10-20 μa) proton and deuteron beams at 30-50 MeV/u on various targets Beams created nega:ve ion source Primary beam stopped aluminum, water cooled beam dump p,n reac:ons create RIBs Dense (He) gas cell thermalizes RIBs, charge 1+ state Differen:al pumping and SPIG moves RIBs to CBECR ion source First RIB: 27 Si : 27 Al(p,n) 27 Si T-REX

Light Ion Guide ~ 1mbar ~10-2 mbar proton beam ~10-6 mbar Gas Cell with Target He ~ 300 mbar To CBECR SPIG / RF- Hexapole T-REX

T-REX Status K150 Cyclotron operational & beam lines installed to K500 experimental areas and LIG CBECR ion source working with efficiencies as high as 20% with 1 + sources Accelerated 85 Rb 15+ at 10, 15 MeV/u and 133 Cs 24+ at 10 MeV/u in K500 from CBECR ion source through injection line (throughput ~15%) LIG fully installed and tested with open 228 Th 64 Ga & 67 Ga (from p+zn) extracted from LIG!!! HIG installed & preparing for source testing T-REX

100.0 K500 CYCLOTRON + ECR 72 MeV/u deuterons (max 80 MeV/u) + CBECR 12 MeV/u 238 U E/A (MeV/Nucleon) 10.0 1.0 T-REX 0 50 100 150 200 250 ATOMIC MASS NUMBER

Future Equipment MicroMegas TexAT Beam E Field Cage Si-CsI(Tl) telescopes

Summary Texas A&M Cyclotron Ins:tute is able to deliver a wide variety of stable and radioac:ve beams MARS currently produces inflight RIBs T- REX will deliver reaccelerated RIBs to all current (and future) experimental equipment stopped RIB to TAMU Trap

Facility & Research supported by US Department of Energy, Office of Science, Nuclear Physics Robert A. Welch Founda:on State of Texas Texas A&M University US Na:onal Science Founda:on US Department of Energy, NNSA