French R&D program on SFR and the

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PRESENT STATUS OF FRENCH PROGRAM ASTRID JAPAN FRANCE COOPERATION EXPECTATIONS ON MONJU MONJU ASTRID ALAIN PORRACCHIA DIRECTOR FOR INNOVATION AND INDUSTRIAL SUPPORT CEA/DEN French R&D program on SFR and the PAGE 1

WHY TO CHOOSE A FAST NEUTRON REACTOR? Three main reasons: Mastering, through recycling, the growth of Plutonium inventory Excellent use of uranium resource Unlike reactors currently in operation or construction worldwide, that use only about 1% of natural Uranium, Fast neutron Reactors are able to use more than 80% of the Uranium resource. The current stockpile of depleted Uranium available in France could feed the current needs of electricity production for several 1000 years. Ability to transmute and burn minor actinides PAGE 2

A PERFECT CONVENIENT TECHNOLOGY FOR THE FUTURE Two types of Fast Neutron Reactors have been selected in France: Cooled by sodium : the reference The ASTRID Project Integrated Technology Demonstrator 600 MWe 4 th generation reactor Cooled by gas : the prospective route The ALLEGRO Project, a project embodied through a consortium in central Europe CEA Associated to the Consortium PAGE 3

ASTRID AND FUEL CYCLE SCHEDULE PAGE 4

2006 FRENCH ACT : THE 2012 MILETSONE Executive Summary available in English end of May PAGE 5

GENERAL FRAME OF THE ASTRID DESIGN ASTRID will be designed using lessons learnt from the Fukushima-Daichi accident The design benefits of feedback of Sodium-cooled fast neutron reactors Favorable intrinsic features to cool-down the reactor: Large thermal inertia; Diversified heat sinks; Natural circulation; Ability to guarantee a minimum sodium level. Safety objectives of ASTRID are derived from the WENRA* document Safety objectives for new nuclear power plants. It summarizes the highest safety standards, even for Fukushima-like initiators. Former Beyond Design Basis Accidents are included in the design. *Western European Nuclear Regulators Association Safety requirements are checked with the Generation IV International Forum Safety Design Criteria PAGE 6

PRELIMINARY DESIGN CHOICES / OPEN OPTIONS (AS FOR APRIL 2013) Main features 1500 thmw - ~600 emw Sodium cooled pool type reactor 3 Primary pumps, 4 IHX 4 Secondary sodium loops with EMPs Oxide fuel UO 2 -PuO 2 High level expectations in terms of safety demonstration - Preliminary strategy for severe accidents (core catcher ) - Diversified decay heat removal systems Fuel handling in sodium. Open options Core design Energy conversion system - water/steam or - N2 (reference today) Complementary devices for improved prevention of severe accidents (i.e. 3rd shutdown level) Core catcher design and materials SGs or Sodium-Gas HX design and materials Innovative technologies for Na fires detection and mastering Type of I&C Innovative.. options to be tested Carbide fuel SiC-SiC materials PAGE 7

ASTRID PROJECT INDUSTRIAL ORGANIZATION R&D and ASSISTANCES About 550 people External assistances EDF R&D R&D Qualification of the design (CEA) Specific studies Expertises (CEA) Paris Cad, Sac, Mar GENIV strategic management CEA/Nuclear energy directorate Saclay Project management team Global design CEA RAMS ASTRIUM Les Mureaux Cadarache ASTRID team in Marcoule EDF support Lyon Innovations COMEX NUCLEAIRE, TOSHIBA ROLLS ROYCE Tokyo Marseille Derby ASTRID management Engineering studies Core CEA Engineering Batch 1 Nuclear Engineering island Power conversion system Engineering Engineering Civil and Batch I&C 2 Batch N-1 AREVA NP ALSTOM BOUYGUES Cad, Sac, Mar Lyon, Paris Belfort, Paris Paris Engineering Balance of Batch plant N JACOBS Paris PAGE 8

FROM LWRs RECYCLING TO FRs RECYCLING Pu stored in MOX Spent Fuel recycled in MOX SFR to start the SFRs deployement Scenario can be flexible Both systems can coexist during a transition phase FNR merits as regards to fuel cycle No front end steps and no enrichment technology Use depleted U; Use Pu included in MOX Spent Fuel Multi-recycling of Pu Possible recycling of Minor Actinides Possible irradiation in Monju? 9 PAGE 9

FRANCE JAPAN COOPERATION ON ASTRID - MONJU Three areas of cooperation -1. Astrid Fuel -2. Sharing Programs and Infrastructures -3. Participation to Astrid R&D and Studies Joyo RJH Monju A Comprehensive Cooperation Program under construction And already long term story beween Japan and France on Sodium Fast Reactors Monju International Workshop - April 25, 2013 PAGE 10

MONJU ROLE / FRANCE VIEW NEEDS ASTRID DRIVER FUEL QUALIFICATION PLUTONIUM MULTIRECYCLING QUALIFICATION MINOR ACTINIDES TRANSMUTATION Trilateral Framework with US (GACID and New GACID) Mentioned in the national report released end 2012 Strong Expectations on Large Scale Irradiations Programs Full Size Pin Bundle Sub-Assembly PAGE 11

Thank you PAGE 12 French R&D program Commissariat à l énergie atomique et aux énergies alternatives Centre de Saclay 91191 Gif-sur-Yvette Cedex T. +33 (0)1 68 09 32 04 Nuclear Energy Division Etablissement public à caractère industriel et commercial RCS Paris B 775 685 019

LONG TERM SUSTAINABLE SYSTEMS 1. KEEP ON RECYCLING in NUCLEAR SYSTEMS 2. IN FAST REACTORS Because of these main merits : EFFICIENT BURNING OF PLUTONIUM NO NEED FOR NATURAL URANIUM POTENTIAL FOR IMPROVING WASTE MANAGEMENT Fission/Absorpt 1.00 0.90 0.80 0.70 0.60 0.50 0.40 0.30 0.20 0.10 0.00 U235 U238 Fission/Capture rate for various nuclides in PWRs and SFRs Np237 Pu238 Pu239 Pu240 Pu241 Pu242 Am241 Am243 Cm244 PWR SFR PAGE 13

A BETTER USE OF URANIUM 238 Source : WEC, 2010 Survey of Energy. (Coal: 860 Gt, Oil: 163 Gt, Gas: 185 Tm3, Uranium : 3,5 Mt) 14

RADIOACTIVE WASTE OF GENERATION IV SYSTEMS PAGE 15