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Enabling Clean Energy: Deployment of the First Commercial SMR in the U.S.
Enabling Clean Energy: Deployment of the First Commercial SMR in the U.S.
GAIN Fuel Safety Research WorkshopMay 3, 2017
Dr. Corey McDanielDirector, International & Commercial CooperationDirector, SMR Deployment
NUCLEAR ENERGY RD&D NEEDS and OUTCOMES
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Nuclear Energy RD&D Goals• Economics:
• Competitive energy cost• Safety and Security:
• Improved safety margin & reduced reliance in active systems
• Non-Proliferation• Proliferation resistant systems & improved safeguards
• Environmental:• Improved resource & waste management• Reduced environmental impact
2010 2020 2030 2040
LWR LIFE EXTENSIONUSED FUEL STORAGE
ADVANCED LWR BASEDSYSTEMS & COMPONENTS
SMRs
ADVANCED REACTORS NUCLEAR HYBRID ENERGYSUSTAINABLE FUEL CYCLEGEOLOGIC REPOSITORY
A balanced and innovative National Nuclear Energy RD&D portfolio is needed to meet near-terms priorities and long-term objectives given the long gestation period for nuclear technologies.
9911 33 55 8822 7744 66Proof-of-Concept Proof-of-Performance Proof-of-Operations
R&D Test Bed and Demonstration Platform are Critical for Rapid Development and Commercialization of Advanced Nuclear Reactor Technologies
Major missing element is a versatile fast-spectrum test reactor.
R&D Test Bed to Address Technical
Feasibility– Knowledge and
Validation Center– Validated predictive
modeling and simulation capabilities
– Experimental Capabilities
Demonstration Platform to Address
Economic/Operational Feasibility
– Siting Support• Site Use Permit (2/16)• Siting document already
provided to 16 other companies in past year.
([email protected]) – R&D and Licensing Support
• Hybrid Energy Systems
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Joint Use Modular Plant (JUMP)UAMPS, NuScale & INL Joint Proposal: that DOE reserve, purchase and/or lease individual module(s) from the UAMPS 12-module NuScale SMR planned to be built at the INL.
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Advantages:
• INL: cost-effective demonstration platform utilizing independent modules and steam.
• SMRs: expands security capabilities and international markets for clean energy.
• UAMPS: temporarily utilizing unsubscribed modules benefits project finances and long-term operations.
• INL: provides a platform for resolving regulatory uncertainties.
Joint Use Modular Plant (JUMP)
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UAMPS
JUMP 1:Grid
DemonstrationUAMPS UAMPSUAMPS
UAMPS UAMPSUAMPS UAMPS
JUMP2:Hybrid Energy Demonstration
• Cyber Secure• Secure
Reliable Microgrid
• Load Following
• Uninterruptible Power
• District Heating• Heat +
Electricity• H2 Production• Desalination• Synthetic Fuels• Others….
Simplified Schematic of 12 NuScale Modules
Commercial Electricity
Commercial Electricity
UAMPS UAMPS
• JUMP provides commercial demonstration of grid and hybrid energy test/pilot scale programs
• DOE purchase/lease(s) in 5-year increments• INL and other Labs develop, design, and
construct demonstrations• Involve industry and international collaborators
BIG IDEA: “Nuclear Energy Reimagined”• Establish nuclear hybrid energy systems (HES) as a cornerstone for energy security, reliability, and sustainability.
• Utilize the JUMP SMR platform to commercially demonstrate HES and secure, reliable microgrid applications.
• Advance U.S. economic competitiveness internationally.• Applied research to demonstrate energy system integration.• Basic science research to discover new methods.• Small-scale demonstrations with industry within 5 years.• Full-Scale demonstration and licensing with industrial partners within 10 years – coinciding with SMR deployment at INL.
• Commercial demonstration to benefit all advanced reactors.7
SMR Deployment - Strategic Initiatives (2-5 yrs)
• Technical– Lab programs directed to
support SMR deployment– LWRS lessons learned– Water utilization– Hybrid Energy Systems (HES)
• District Heating• Desalination
– Advanced manufacturing, I&C• Operational
– Siting, Services– Water rights, Local interactions– Economic analyses– Lease Module(s), PPA
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Direct DOE assets to support rapid retirement of commercial risk in partnership with vendors & industry
(GAIN – Demo platform)
Remove barriers to siting SMRs and other advanced reactors at INL – make it attractive; Coordinate & support with other sites where appropriate (ORNL,PNNL, SNL, SRNL)
Critical Outcome: (5-10 Years)Deploy First SMR in U.S.
Objective:
Regulatory & Business PartnershipsStrategic Initiatives (2-5 years)• Regulatory
– Prioritize regulatory research– Broad site licensing strategy for
multiple technologies– Market considerations– Regulatory readiness levels
• Partnership and Business Aspects– Innovative financing– CRADA, WFO, NDA, T&C, Cost
Recovery models– Public relations communications– Other site integration
• ORNL/TVA, PNNL/ENW, military– International cooperation (e.g. HES)
Team with NRC and industry to enhance regulatory readiness and retire risk - support anticipatory R&D for NRC
Provide those systems that enable rapid access to DOE assets; support regional, national and international education and awareness
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Objectives:
INL has Dedicated Resources to Support theSMR Deployment Strategy
• SMR Deployment Director – Corey McDaniel– Principle liaison to SMR commercial partners– SMR deployment strategy coordinator– International cooperation (CRADA, WFO, LDRD)– Coordination with Idaho entities– Communications, Financing, Policy support
• SMR Technical Director – George Griffith– Coordinate R&D teams and priorities– Manage direct and indirect resources– R&D technical contact– Previously managed INL site selection for participation
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Dedicated Resources continued
• SMR Operations Director – Mike Patterson– Siting strategy– DOE, UAMPs site support– Service agreements– Use Permit, Water rights support
• SMR Regulatory Director – Jim Kinsey– NRC liaison (previously NGNP regulatory lead)– Prioritize anticipatory research needs based on
technology readiness– Part 50 and 52 strategy support
• HES/JUMP Director – Shannon Bragg-Sitton– Nuclear Re-imagined Big Idea– Nuclear Hybrid Energy Systems POC
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SMR Enabling Technical Programs - POCs• Cybersecurity – Modern cyber environment deployment - Ginger Wright• Grid Modeling and Technology – advanced models/simulations – Scott McBride/Rita Foster
– Coordinating with TVA/ORNL Secure Mircogrid Pilot Program – Dan Stout
• Seismic – New tools and methods for deeply embedded structures – Justin Coleman• Advanced Manufacturing and Civil Engineering/Deployment – George Griffith• Hybrid Energy Systems (HES)– iPWR applications – Shannon Bragg-Sitton
– Desalination, synthetic fuels, district heating, renewable integration
• Future technology forward planning, Advanced I&C and sensors – Bruce Halbert• Safeguards By Design (SBD) – international applications – Sean Morrell• Multi-unit PRA – models with passive and parallel systems – Cristian Rabiti• Economic/Program Planning – modeling and performance models – Mike Patterson• Start up testing plans – for passive iPWR reactors – Bill Phoenix• Control Room design – modeling and testing human interface – David Gertman• Small Battery Qualification – Performance testing for new batteries – Kev Adjemian
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