Advanced Reactor Overview

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NIC/ETEC Nuclear Supplier Workshop September 6-7, 2017 Pollard Technology Conference Center Oak Ridge, TN Advanced Reactor Overview Steve Freel President & CEO Studsvik Scandpower

What is an Advanced Reactor? In General we are talking about Non-Light Water Reactors or, loosely, Generation IV Reactor types Very-high-temperature reactor (VHTR) Molten-salt reactor (MSR) (MSFR) Gas-cooled fast reactor (GFR) Sodium-cooled fast reactor (SFR) Lead-cooled fast reactor (LFR) More AR Features: Scalable from 2 MWe to 1200 MWe Can have a lower operating cost, CTC: $2500 to $3900/kWe Waist: Some produce 0.5 to 1 MT and can use 55 MT Many designs can be walk away safe without operator intervention Can use enriched uranium, depleted uranium, or spent nuclear fuel

Technology Needs U.S. fast reactor R&D is focused on key technology innovations for performance improvement Materials Fuel Design and Qualification I&C Component design and testing Chemistry Erosion corrosion Advanced Modeling and Simulation Development of advanced neutronics, thermal-hydraulics, and mechanical analysis tools to provide credible capabilities to design advanced concepts, and understand the design margins Lack of a test facility for fast neutron

Who s doing this In the U.S. and Canada more than three dozen firms, representing about $1.3 billion in impatient investor money, are currently pursuing technological innovations in nuclear energy. These firms include large, big-name projects, with deep pockets, and small startups like with Series A funding. Start-up models adapted from Silicon Valley are being used to organize the efforts with venture capital funding in the mix. Some reactor design efforts will stop at the stage where intellectual property can be licensed by a developer to a deep pocket reactor vendor or state-owned corporation. Creating a culture of innovation globally

Who Advanced Reactor Concepts AREVA Elysium Industries Ltd Flibe Energy GE-Hitachi Gen4 Energy General Atomics Hybrid Power Technology Kairos Next Generation Nuclear Plant Alliance Oklo TerraPower Terrestrial Energy ThorCon Transatomic Urenco U-Battery X-Energy Moltex Muons, Inc/GEMSTAR

Advanced Reactor Licensing U.S. Nuclear Regulatory Commission (NRC) draft regulatory guide (DG), DG-1330, Guidance for Developing Principal Design Criteria for Non-Light Water Reactors. guidance for developing principal design criteria (PDC) to designers, applicants, and licensees of advanced reactors. "NRC Vision and Strategy: Safely Achieving Effective and Efficient Non-Light Water Reactor Mission Readiness," which was published in the Federal Register on July 21, 2016, Nuclear Innovation Alliance (NIA) has proposed a staged licensing process Utility driven licensing process lead by Southern Nuclear Modernization of the technical requirements of Advanced Non-Light water Reactors Risk-Informed Performance Based Licensing Process The goal is to find ways to streamline the licensing process while avoiding new rulemaking The current licensing work done for NuScale will be a litmus test for the NRC s internal streamlining

National Labs and NGO s DOE In 2013 Provided matching funds to X-energy and SNC/Terrapower to support development. multi-year cost share of up to $80 million for both companies, will support work to address key technical challenges to the design, construction, and operation of next generation nuclear reactors. Gateway for Accelerated Innovation in Nuclear (GAIN) initiative is a public-private partnerships Provides the nuclear energy community with access to the technical, regulatory, and financial support accelerate the commercialization of advanced nuclear energy systems. Investigating the construction of a fast flux test reactor NEI and EPRI are sponsoring working groups to help determine needs of AR developer US NIC created a AR working group and a Road Map project to support industry suppliers UK and Canada are pursing advanced reactor China has an all of the above strategy funding universities and labs

Advanced Reactor Road Maps Project Develop a generic AR Road Map applicable across designs Identification of generic gaps requiring analysis and resolution Provide Suppliers with an understanding of what will be needed when by the AR Developers Provide an understanding of AR industry outlook and drivers to Manufacturing and Supply Chain Working Group Members Project leaders: Steven Freel, Studsvik Scandpower Vince Gilbert, NIC Phase I: Listing of major activities for a generic AR Road Map with generic milestone definitions for both USA and Canada. Phase II: Identification and description of gaps in areas recommended by the project team Phase III: Development of gap analysis and recommended action plans for gap resolution as project time allows. Final Results and Next steps: December 15, 2017

Steve Freel Steven.Freel@Studsvik.com