Applications of Demokritos TANDEM Accelerator in Fusion Technology Research TANDEM Lab I.N.P.P M. Andrianis S. Harisopoulos A. Lagoyianis G. Provatas National.

Slides:



Advertisements
Similar presentations
ASSOCIATION EURATOM HELLENIC REPUBLIC (and CYPRUS) (HELLAS) FOUNDATION FOR RESEARCH AND TECHNOLOGY-HELLAS NATIONAL CENTRE FOR SCIENTIFIC RESEARCH “DEMOKRITOS”
Advertisements

Ion beam Analysis Joele Mira from UWC and iThemba LABS Tinyiko Maluleke from US Supervisor: Dr. Alexander Kobzev Dr. Alexander Kobzev.
Ion Beam Analysis techniques:
Study of Thermal Properties of Irradiation-induced Stainless Steels Used in the Development of Nuclear Reactors Mauricio Londono, Mechanical and Energy.
PhD studies report: "FUSION energy: basic principles, equipment and materials" Birutė Bobrovaitė; Supervisor dr. Liudas Pranevičius.
A.Lagoyannis I.N.P.P. NCSR “Demokritos” Nuclear Physics Applications at the Institute of Nuclear and Particle Physics A. Lagoyannis Institute of Nuclear.
April 13 & 14, 2011Workshop on EU fusion roadmap -Garching 1 Contribution to EU fusion programme Association EURATOM-MHEST Milan Čerček, HRU.
LIBRA Kick-off meeting, March 11, 2009 Large Sample NAA and Bio-Medical Applications at the Tandem accelerator F. Tzika, D. Vasilopoulou, D. Kontogeorgakos,
SYNERGY of Irradiation and PIE Facilities at BNL N. Simos RaDiATE Meeting December 12, 2014 BLAIRR Tandem van de GRAAFF NSLS II XPD Beamline (PIE)
Study of sputtering on thin films due to ionic implantations F. C. Ceoni, M. A. Rizzutto, M. H. Tabacniks, N. Added, M. A. P. Carmignotto, C.C.P. Nunes,
Japan PFC/divertor concepts for power plants. T retention and permeation  Problems of T retention would not be serious…. Wall temperature will exceeds.
Accelerator technique FYSN 430 Fall Syllabus Task: determine all possible parameters for a new accelerator project Known: Scope of physics done.
Materials for fusion power plants Stéphane Forsik - Phase Transformations and Complex Properties Group FUSION POWER PLANT.
The Work Being Done at the Ion Beam Laboratory at Texas A&M University Van D. Willey Columbia High School Under the Direction of Lin Shao Assistant Professor.
Mechanical and fluidic integration of scintillating microfluidic channels into detector system 1 Davy Brouzet 10 th September 2014.
ENEN Collimator Materials for LHC Luminosity Upgrade: Status of Irradiation Studies at BNL Collimation Upgrade Specification Meeting 21/06/2013 N. Mariani.
FETS-HIPSTER (Front End Test Stand – High Intensity Proton Source for Testing Effects of Radiation) Proposal for a new high-intensity proton irradiation.
Tokamak GOLEM (for fusion education) Tokamak GOLEM just in operation (plasma in the chamber) major radius R = 0.4 m plasma current < 10 kA toroidal magnetic.
Power Extraction Research Using a Full Fusion Nuclear Environment G. L. Yoder, Jr. Y. K. M. Peng Oak Ridge National Laboratory Oak Ridge, TN Presentation.
OVERVIEW Material Irradiation Damage Studies at BNL BLIP N. Simos and H. Kirk, BNL K. McDonald, Princeton U N. Mokhov, FNAL (Oct. 20, 2009) (BLIP = Brookhaven.
EU-WORKSHOP FUSION PROGRAMME ROADMAP FOR FP8 IPP- GARCHING BULGARIAN EURATOM – INRNE FUSION ASSOCIATION INSTITUTE FOR NUCLEAR RESEARCH AND NUCLEAR ENERGY.
Measurement and modeling of hydrogenic retention in molybdenum with the DIONISOS experiment G.M. Wright University of Wisconsin-Madison, FOM – Institute.
MATERIALS FOR NUCLEAR APPLICATIONS CMAST (Computational MAterials Science & Technology) Virtual Lab Computational Materials.
1 1) Japan Atomic Energy research Institute 2) Institute of Advanced Energy, Kyoto University 3) Japan Nuclear Cycle Development Institute Progress of.
EuCARD-2 is co-funded by the partners and the European Commission under Capacities 7th Framework Programme, Grant Agreement EuCARD 2 ColMat-HDED.
Ion Beam Analysis Dolly Langa Physics Department, University of Pretoria, South Africa Blane Lomberg Physics Department, University of the Western Cape,
Vladimír Wagner Nuclear physics institute of CAS, Řež, Czech Republic, E_mail: for collaboration “Energy plus transmutation RAW”
Simulating fusion neutron damage using protons in ODS steels Jack Haley.
NA2: Thin actinide targets optimized for high intensity beams Purpose: Optimize the high power capability and durability of thin actinide targets (“thin”
FLUKA Rechnungen für das CBM Experiment an FAIR
MATERIAL ISSUES FOR ADS: MYRRHA-PROJECT A. Almazouzi SCKCEN, Mol (Belgium) On behalf of MYRRHA-TEAM and MYRRHA-Support.
Duncan Weathers Department of Physics University of North Texas.
FAST NEUTRON IRRADIATION-INDUCED DAMAGE ON GRAPHITE AND ZIRCALOY- 4 TSHEPO MAHAFA University of Johannesburg Supervisor: Dr Emanuela Carleschi (UJ) Co-Supervisor:
Proposal for uranium micro-beam linac at the APS for reactor fuel and structural materials studies 1 MeV/u heavy ions up to uranium includes “fission fragments”
Daniela Adriana LĂCĂTUŞ1 Supervisor: Alexander Pavlovich KOBZEV
ENEN Collimator Materials for LHC Luminosity Upgrade: Proposal of Irradiation Studies at BNL Collimation Upgrade Specification Meeting 15/02/2013 N. Mariani.
1 US PFC Meeting, UCLA, August 3-6, 2010 DIONISOS: Upgrading to the high temperature regime G.M. Wright, K. Woller, R. Sullivan, H. Barnard, P. Stahle,
1 Russian Research Center” Kurchatov Institute” Alexander Ryazanov Charge State Effects of Radiation Damage on Microstructure Evolution in Dielectric Materials.
Slide 1 5th LHC RADIATION WORKSHOP, CERN, , Jochen Kuhnhenn, Fraunhofer INT Radiation tolerant fibres for LHC controls and communications.
1 mm 1.5 mm 2 mm 0.5 mm 1.5 mm ABSTRACT Within the framework of fusion technology research and development, a neutron source has long been considered a.
Materials Integration by Fission Reactor Irradiation and Essential Basic Studies for Overall Evaluation Presented by N.Yoshida and K.Abe At the J-US Meeting,
M. Štefánik *), P. Bém, M. Honusek, K. Katovský, M. Majerle, J. Novák, and E. Šimečková AER Working Group F – „Spent Fuel Transmutation“ and INPRO IAEA.
G.I. SmirnovMaterials for Collimators and Beam Absorbers, Simulating radiation damage effects in LHC collimators (code development status)
BNL Irradiation Facility Use Collimator Materials for LHC Luminosity Upgrade.
Fuel Cycle Research Thrust Using A Full Fusion Nuclear Environment
1 Nuclear Fusion Class : Nuclear Physics K.-U.Choi.
1 SPIRE Project coordinated by CEA – Contractors : CEA, CIEMAT, CNRS, NRG, ENEA, PSI, KTH, SCK/CEN, FZK « IRRADIATION EFFECTS IN MARTENSITIC STEELS UNDER.
Karolina Danuta Pągowska
The International Workshop on Thin Films. Padova 9-12 Oct of slides Present Status of the World- wide Fusion Programme and possible applications.
Radiation Damage Quick Study Edward Cazalas 3/27/13.
EuCARD-2 is co-funded by the partners and the European Commission under Capacities 7th Framework Programme, Grant Agreement EuCARD2 ColMat HDED.
Progress Report from Material Radiation Testing at NCSR Demokritos 28 February 20111Nick Gazis, CERN-BE/RF & NTU-Athens Input from: G. Riddone, A. Samoshkin,
TE-MPE-CP, RD, LHC risk review 06-Mar R. Denz TE-MPE-CP Radiation Hardness of Cold By-pass Diodes Acknowledgements: D. Hagedorn (former project.
FETS-HIPSTER A High-Flux Proton Irradiation Facility Steve Roberts (University of Oxford) Chris Densham (RAL), Alan Letchford (RAL), Juergen Pozimski (Imperial.
The 14 MeV Frascati Neutron Generator (FNG)
Investigation of the Performance of Different Types of Zirconium Microstructures under Extreme Irradiation Conditions E.M. Acosta, O. El-Atwani Center.
Overview of Tandem Accelerator Facility and related R&D Work at NCP Ishaq Ahmad
Thanks to all members of organisation committee for the preparation of this event Thanks to all participants for their interest R.Schmidt Introduction.
EuCARD WP 7 – High Field Magnets EuCARD WP 7 – High Field Magnets Aim and goals Mini Workshop of Accelerators Radiation Mini Workshop of Accelerators Radiation.
National Aeronautics and Space Administration SCIENCE & TECHNOLOGY OFFICE Nasser Barghouty Astrophysics Office, MSFC 10 th Geant4 Space Users.
Alloy Design For A Fusion Power Plant
National Research Center” Kurchatov Institute”
“hot spots” SIS100 internal beam dump Super-FRS production target
Materials for extreme thermal management (PowerMat)
Fernando Mota, Christophe J. Ortiz, Rafael Vila
Preparation of activation experiments for ITER material characterization and data validation in the Deuterium–Tritium JET campaign T. Vasilopoulou &
Australian Nuclear Science and Technology Organisation, Australia
Russian Research Center “ Kurchatov Institute”
Neutron production in Pb/U assembly irradiated by p+, d+ at 0. 7 – 2
TRL tables: power conversion and lifetime
Presentation transcript:

Applications of Demokritos TANDEM Accelerator in Fusion Technology Research TANDEM Lab I.N.P.P M. Andrianis S. Harisopoulos A. Lagoyianis G. Provatas National Centre for Scientific Research “Demokritos” NuPECC Meeting, Athens, Greece, March 2015 Fusion Technology Group I.N.RA.S.T.E.S. G. Apostolopoulos Z. Kotsina V. Lukianova K. Mergia S. Messoloras I.E. Stamatelatos P. Tsavalas T. Vasilopoulou

 Materials for Fusion Energy Production –Radiation damage of materials –Ion irradiations of fusion materials –Plasma Facing Materials  Activation Properties of CERN Structural Materials Outline

Materials for Fusion Energy The long-term perspective of the European Fusion Programme (EUROFUSION in H2020) is to achieve electricity production from the D+T fusion reaction. A major challenge for the realization of the fusion power reactor (DEMO) is the development of materials capable of withstanding the intense neutron radiation. DEMO Fusion reactor Radiation Damage of materials during DEMO operation

Radiation Damage in Fusion Materials Microscopic radiation damage processes: –Atomic displacement and lattice disruption –Transmutation products: He & H –Activation Accumulation of radiation damage leads to Macroscopic effects: –Dimensional instabilities, swelling, bubbles, voids –Reduction in thermal & electrical conductivity –Deterioration of mechanical properties, hardening, embrittlement Effects of 14 MeV fusion neutrons on materials Atomic displacement Swelling Void/Bubble Formation

Operating conditions ITERDEMO

Fusion Materials Research Research is conducted world-wide for the development of materials capable of withstanding fusion conditions A serious drawback is the lack of suitable neutron sources for testing under realistic conditions Ion accelerators are widely used to simulate irradiation conditions in a fusion plasma. At the Demokritos TANDEM accelerator irradiations of fusion materials are carried out with the aim to study fundamental radiation damage properties. The results are used for the validation of theoretical models developed within the MAT-IREMEV project (Integrated Radiation Effects Modeling & Experimental Validation) that operates under EUROFUSION

Ion Irradiation of Fusion Materials  Development of the new materials irradiation facility “IR 2 ” with unique capabilities at the European level Irradiation at cryogenic temperatures (40K) In-situ damage estimation by real-time monitoring of the electrical resistivity Rapid in-situ post-irradiation annealing  Radiation damage and recovery of Fe-Cr alloys (prototype alloys for Fusion Reactor structural materials) Recovery Rate (% / K) Annealing Temperature (K) Recovery in Fe-5%Cr after 5MeV proton irradiation at T=50K

Plasma Facing Materials Plasma facing materials (PFM) are materials exposed in the harsh conditions of the plasma e.g. high temperatures, irradiation fields  TANDEM based nuclear analytical techniques such as  Rutherford Backscattering spectroscopy (RBS)  Nuclear Reaction Analysis (NRA)  Time-of-Flight Heavy Ion Elastic Recoil Detection Analysis (ToF HIERDA) combined with the application of micro-beam analysis are used to investigate Plasma Facing Materials removed from JET after the Deuterium-Tritium experimental campaign. PFMs are studied at Demokritos TANDEM accelerator utilizing nuclear analytical techniques JET (European tokamak)

Evaluation of CERN structural materials activation Prediction of induced activity and dose rates is important for radiation protection of CERN maintenance personnel. Evaluation of CERN structural materials activation properties was carried out by sample irradiation with neutrons in the energy range 4 to 11 MeV at Demokritos Tandem Accelerator and measurement of sample induced activity and dose rate. SiC Girder and supportsExperimental set-up

Outlook Future developments: Use of advanced accelerator-based analytical techniques for fusion materials characterization at the nanoscale Development of a state-of-the-art materials irradiation chamber for radiation damage and ion beam modification Dual-beam irradiations for simulation of fusion conditions Thank you for your attention