The FAIR* Project *Facility for Antiproton and Ion Research Outline:  FAIR layout  Research programs Peter Senger, GSI USTC Hefei Nov. 21, 2006 and CCNU.

Slides:



Advertisements
Similar presentations
The Physics of Nuclei, Nuclear Matter and Nucleosynthesis Report of the Nuclear Physics Advisory Panel.
Advertisements

Hierarchies of Matter matter crystal atom atomic nucleus nucleon quarks m m m m < m (macroscopic) confinement hadron.
Chapter 17 Star Stuff.
HEPTECH meeting at Sofia Overview of Technology Marketing at GSI.
Life Cycle of a Star.
Fill in the chart when you see a yellow star. Take notes on the stars and events as well.
Review for Quiz 2. Outline of Part 2 Properties of Stars  Distances, luminosities, spectral types, temperatures, sizes  Binary stars, methods of estimating.
Matter ~13.8 Billion Years Ago
J. Marton, ÖPG-FAKT, Weyer, September 27, FAIR at GSI and the Future of Hadron Physics J. Marton Institute for Medium Energy Physics Austrian Academy.
GSI and FAIR - EPICS status report - Peter Zumbruch Experiment control systems group GSI (KS/EE)
Lasers and Highly-Charged Heavy Ions at Günther RosnerHZDR Workshop, Rossendorf, 6/9/111.
Outlook towards future Polish participation in the new Accelerator Facility Tomasz Matulewicz Warsaw University.
24/04/2007ALICE – Masterclass Presentation1 ALICE Hannah Scott University of Birmingham.
EJB April 2006 Nuclear Science: The Mission Understand the origin, evolution, and structure of the baryonic matter of the Universe Cosmic accelerationRotation.
Frank L. H. Wolfs / University of Rochester, Slide 1 Evolution of the Universe Frank L. H. Wolfs Department of Physics and Astronomy University of Rochester.
Open Charm Everard CORDIER (Heidelberg) Grako meeting HD, April 28, 2006Everard Cordier.
Power of the Sun. Conditions at the Sun’s core are extreme –temperature is 15.6 million Kelvin –pressure is 250 billion atmospheres The Sun’s energy out.
Christina Markert Physics Workshop UT Austin November Christina Markert The ‘Little Bang in the Laboratory’ – Accelorator Physics. Big Bang Quarks.
Progress Report Günther RosnerNuPECC, Copenhagen, 15/6/121.
Claudia Höhne GSI Darmstadt
Working Group 5 Summary David Christian Fermilab.
The FAIR Chance for Nuclear Astrophysics Elemental Abundances Core-collapse Supernovae The neutrino process The r-process nuclei in -Wind Neutron Stars.
The Active Target for R 3 FAIR Peter Egelhof GSI Darmstadt, Germany ACTAR Workshop Bordeaux, France June 16 – June 18, 2008 FAIR.
GSI Future Facility Walter F. Henning March 2003, LEAP03 Introduction Facility Layout and Characteristics Scientific Areas and Goals Research with Antiprotons.
Nuclear Energy Nuclear fission is when a heavy nucleus splits into two smaller nuclei. The total mass of the products is less than the original mass. The.
Life Cycles of Stars.
The Facility for Antiproton and Ion Research in Europe Günther RosnerMESON2012, Krakow, 4/6/121.
D DD*DD* ψ(1 1 D 2 ) ψ(1 3 D 2 ) ψ(1 3 D 3 ) ψ(1 3 D 1 ) η c (1 1 S 0 ) η c (2 1 S 0 ) J/ψ(1 3 S 1 ) χ c0 (1 3 P 0 ) χ c1 (1 3 P 1 ) χ c2 (1 3 P 2 ) h.
Stellar Fuel, Nuclear Energy and Elements How do stars shine? E = mc 2 How did matter come into being? Big bang  stellar nucleosynthesis How did different.
CERN NuPAC meeting Dec 2005 The future of ISOLDE: accelerated radioactive beams Peter Butler 1.HIE-ISOLDE 2.EURISOL.
1 Plans for JINR participation at FAIR JINR Contributions: ● Accelerator Complex ● Condensed Baryonic Matter ● Antiproton Physics ● Spin Physics Physics.
Valery Dormenev Institute for Nuclear Problems, Minsk
International FAIR Boris Sharkov FAIR / MEPhI Scientific Managing Director, Lomonosov MSU 2015 Sweden FranceIndia Finland GermanyPoland UK Romania Russia.
1 THE MUON DETECTION SYSTEM FOR THE CBM EXPERIMENT AT FAIR/GSI A. Kiseleva Helmholtz International Summer School Dense Matter In Heavy Ion Collisions and.
A Note Taking Experience.
The High Intensity Frontier Franco Cervelli INFN-Pisa 7 Nov, 2005.
International Accelerator Facility for Beams of Ions and Antiprotons at Darmstadt Construction of FAIR Phase-1 December 2005 J. Eschke, GSI Construction.
H. Koch; Seminar Graduate College Bochum/Dortmund; Hadron Spectroscopy with Antiprotons  Historical Overview  Spetroscopy with antiproton beams.
Our Sun’s Story …and that of heavy stars
FLAIR meeting, GSI March Positron Ring for Antihydrogen Production A.Sidorin for LEPTA collaboration JINR, Dubna.
UK Research in Nuclear Physics P J Nolan University of Liverpool.
The Life Cycle of Stars. Cycle for all stars Stage One- Born in vast, dense clouds of gas, mostly hydrogen along with small amounts of helium, and dust.
1 CNS summer school 2002 The RI-Beam Factory and Recent Development in Superheavy Elements Search at RIKEN ◆ Brief introduction to the RI Beam Factory.
Goals of future p-pbar experiment Elmaddin Guliyev Student Seminar, KVI, Groningen University 6 November 2008.
Exploring QCD with Antiprotons PANDA at FAIR M. Hoek on behalf of the PANDA Collaboration IOP Nuclear and Particle Physics Divisional Conference 4-7 April.
The HITRAP Project at GSI For the HITRAP collaboration: Frank Herfurth GSI Darmstadt.
Closing remarks Key qestions: Location of SHE shell and SHE nuclear structure Atomic properties and relativistic effects Breakdown of Mendelejev systematic.
E5 stellar processes and stellar evolution (HL only)
1 Heavy-Ion Physics at J-PARC Shoji Nagamiya RIKEN / KEK / JAEA January 20, 2016 Tokai 1) Motivation 2) J-PARC vs. FAIR.
Inti Lehmann Facility for Antiproton and Ion Research Darmstadt, Germany 2nd PhD Science GSI 2014 – 11 August 2014 FAIR – Facility for Antiproton.
High Energy Observational Astrophysics. 1 Processes that emit X-rays and Gamma rays.
GSI Helmholtzzentrum für Schwerionenforschung GmbH GSI visitation W. Barth W. Barth, WAO 2014, Mainz/Germany.
The Active Target for R 3 FAIR Peter Egelhof GSI Darmstadt, Germany ACTAR Workshop Bordeaux, France June 16 – June 18, 2008 FAIR.
Recent achievements and future challenges of the Spanish research in experimental nuclear physics José Benlliure Universidad of Santiago de Compostela.
Perspectives for Heavy-Ion Collisions at Future Facilities
Nuclear Physics -- Today and Tomorrow From the infinitely strong –
of secondary light ion beams
of secondary light ion beams
Plans for nucleon structure studies at PANDA
Perspectives with PANDA
Middleweight Stars 4-12 solar masses.
Seminar on Radio Active Ion Beam
A Note Taking Experience.
How are stars born? Galaxies are clouds of dust and gas called nebulae
Stars.
Lifecycle of a star - formation
Evolution of the Solar System
Life Cycle of a Star.
Fission and Fusion Chp 24.
How are stars born? Galaxies are clouds of dust and gas called nebulae
Presentation transcript:

The FAIR* Project *Facility for Antiproton and Ion Research Outline:  FAIR layout  Research programs Peter Senger, GSI USTC Hefei Nov. 21, 2006 and CCNU Wuhan, Nov. 23, 2006

storage and cooler rings beams of rare isotopes e – A Collider stored and cooled antiprotons GeV primary beams 5x10 11 /s; GeV/u; 238 U 28+ factor increased intensity 4x10 13 /s 90 GeV protons /s 238 U 35 GeV/u ( Ni 45 GeV/u) secondary beams rare isotopes GeV/u; factor increased intensity antiprotons 3(0) - 30 GeV The Facility for Antiproton and Ion Research accelerator technical challenges Rapidly cycling superconducting magnets high energy electron cooling dynamical vacuum, beam losses

accelerator physics high intensive heavy ion beams dynamical vacuum rapidly cycling superconducting magnets high energy electron cooling Research programmes at FAIR Rare isotope beams; nuclear structure and nuclear astrophysics nuclear structure far off stability nucleosynthesis in stars and supernovae Beams of antiprotons: hadron physics quark-confinement potential search for gluonic matter and hybrids hypernuclei high-energy nucleus-nucleus collisions: compressed baryonic matter baryonic matter at highest densities (neutron stars) phase transitions and critical endpoint in-medium properties of hadrons pulsed heavy ion beams : plasma physics matter at high pressure, densities, and temperature fundamentals of nuclear fusion atomic physics and applied research highly charged atoms low energy antiprotons radiobiology

M   8M  red giant white dwarf Onion shell structure before explosion Birth and dead of stars 8M   M  15M  Supernova II 1.4M   M core  2M  neutron star M  15M  Supernova IIa M  2M  black hole

The origin of elements number of neutrons number of protons Nucleosynthesis in core-collapse supernova-explosions: rapid neutron capture by unstable (neutron-rich ) isotopes Fusion in stars NuSTAR: Nuclear Structure, Astrophysics, Reactions

Intensive rare isotope beams produced by in-flight projectile fragmentation/fission

Hadron physics with high energy antiprotons Search for gluonic excitations: Search for in-medium modifications of hadron properties Precision γ -spectroscopy of single and double hypernuclei Study of the confinement potential with charmonium spectroscopy: 1 fm C C

Charmonium spectroscopy MeV3510 CBall ev./2 MeV 100 E CM CBall E E 835 ev./pb  c1 e + e - versus pp

The PANDA Detector charging cyclotron cooling section electron gun and collector acceleration column return beamline High-energy- electron-cooling energy MeV current up to 2 A magnetic field T (Supercond. Solenoids) in cooling section 30 m Electrostatic Accelerator, charged by H – beam from cyclotron

The phase diagram of atomic matter

The phase diagram of strongly interacting matter