Plutonium Management in France. Current Policy and Long Term Strategy for the Used Fuel Recycling by LWR and Fast Reactors

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1 Plutonium Management in France Current Policy and Long Term Strategy for the Used Fuel Recycling by LWR and Fast Reactors Christophe XERRI, Nuclear Counsellor

2

3 French Nuclear Fleet 2013 One operator: 19 stations 58 PWRs + 1 under construction 63 GWe 406 TWh/year* Nuclear = 75% of production* Nuclear + hydraulic = 90% of production* * 2012, EDF

4 French Nuclear Fuel Cycle Domestic Approach: -All UOX spent fuel recycled - in 22 LWR reactors - U recycled ( 4 reactors licensed) - Pu recycled (24 reactors licensed) Providing services to international customers Avoiding proliferation of sensitive facilities - Enrichment - Reprocessing and MOX fuel fabrication ENRICHMENT Conversion REPROCESSING Georges Besse II Comurhex I & II La Hague Fabrication and RECYCLING Melox + Romans

5 RECYCLING STRATEGY :THE RATIONALE - saving uranium resources (#10% of French nuclear electricity from MOX fuels) - safe & secure ultimate waste without plutonium; (volume, heat load, radiotoxicity decreased) #15%FP #180 l # 12 canisters/ Gwe/year - mastering the growth of plutonium inventory (Pu flux adequacy : Pu from processing= Pu refueled) - plutonium safely concentrated in used MOX fuels (available for future use)

6 Stabilization of the spent fuel inventory in interim storage To be achieved by 2015 70 60 50 40 30 20 10 0 GWd/t 44 2001 2003 2005 2007 Mean Burn up for UO2 fuel GWd/t loading sequence of nuclear fuel with increased 2009 mean burn up 2011 2013 2015 2017 2019 2021 2023 Mean BU for UO2 ( MOX : + 5 years ) 57 GWd/t 2025 2027 2029 t HM /year 1200 1100 1000 900 800 700 600 500 400 300 200 100 2031 0 2001 2003 2005 2007 2009 Spent fuel annual flow thm/year spent fuel équilibrium : UO2 unloaded < UO2 reprocessed 2011 2013 2015 2017 UO2 spent fuel MOX Recycling Reprocessing 2019 2021 2023 2025 2027 2029 2031 A progressive increase in average burn up between 2006 and 2015 Burn up increase => equilibrium in spent fuel management, ~2015 Q reprocessed/year (850 thm) = Q spent fuel/year 30 27 kg Pu/TWh

7 Reducing long term proliferation risks Limitation of the global Pu inventory 1/3 MOX core PWR = zero net Pu production 1/3 Pu in MOX destroyed, 2/3 isotopic degradation concentration (x7) of Pu in MOX spent fuel with higher & longer lasting radiation barrier than UOx (> 7 UOx spent FAs 1 MOX FA) avoids underground disposal of 1100 t HM spent UOx fuel per year (10 t/y Pu) and the associated proliferation risks for future generations (associated environmental benefit : removing the main contributor to long term radiotoxicity and heat in the final waste)

8 Pu Management Strategy Pu isotope Pu from LWR-UOX (%) Pu from LWR-MOX (%) 238 2.48 3.8 239 53.3 39.9 240 24.8 31.1 241 12.1 13.4 242 7.3 11.8 First Spent UOX recycling in LWRs isotopic degradation ( 239 Pu eq ) # 45% ( 239 Pu eq ) # 25% Spent MOX fuel Recycling More efficient in Fast Neutron Reactors Allow to manage MOX fuel and plutonium inventory [UOX et MOX 46 GWj/t

9 From CURRENT FUEL CYCLE to FAST REACTORS FUEL CYCLES Pu stored in MOX SNF to launch FR deployement 50t 8000t CURRENT FRENCH FUEL CYCLE (LIGHT WATER REACTORS) 50t TRANSITION SCENARIOS? 50t URANIUM-PLUTONIUM MULTIRECYCLE (FAST NEUTRON REACTORS)

10 FR REACTORS DEPLOYMENT: CURRENT SCENARIO STUDIES # 63 GWe Life-time extension And EPR new build Stage 3: only MOX fuels No natural uranium needs FR-MOX Pu 3 Stage 2: recycle FR- MOX Current fleet Stage 1: recycle used LWR-MOX 2 FR 1 2025 ASTRID demonstrator EDF-AREVA-CEA joint study

11 Fast Reactors : Development In Motion - Sodium Fast Reactor, the reference option : [ASTRID, the technology demonstrator] - maturity, possible further improvements (safety, operability, economics) - developed with industrial and international partners RAPSODIE 1967-1983 1973-2010 1985-1998 1988-1998 ASTRID Commercial reactor - Gas-cooled Fast Reactor, a long-term option: - attractive potentialities but heavy challenges

12 THE ASTRID PROGRAM - 600 Mwe, «pool» type - oxyde fuel, transmutation capabilities -Innovative design: - self-sustainable safer core - core catcher, residual heat removal - power conversion system Preliminary selection options Decision to build commissioning 2009 2010 2011 2012 2013 2014 2015 2016 2017 2019 2025 Conceptual design -1 Conceptual design -2 Basic design Detailed design & Construction

13 French Nuclear Panorama La Hague Reprocessing plant MELOX - MOX fuel fabrication plant MARCOULE CEA R/D lab Fessenheim NPP Paluel NPP EPR Flamanville NPP ANDRA Geological disposal lab Open door Public Consultation by law and by choice