A Pathway to DEMO - Activities for DEMO in Korea

Similar documents
Korean Fusion Energy Development Strategy*

A roadmap to the realization of fusion energy

The Role of a Long Pulse, High Heat Flux, Hot Walls Experiment in the Study of Plasma Wall Interactions for CTF & Demo

The use of technical readiness levels in planning the fusion energy development

Technology readiness evaluations for fusion materials science & technology

Foundations for Knowledge Management Practices for the Nuclear Fusion Sector

Impact of Pohang Accelerator to Large-scale Science Programs in Korea

Case Study of Socio economic Impact of Research Infrastructures: ITER Korean Project

Technology readiness applied to materials for fusion applications

Implementing Agreement for Co operation in Development of the Stellarator Heliotron Concept (SH IA) Strategic Plan

DEMO work in future. Association Euratom-Tekes. Leena Aho-Mantila VTT Technical Research Centre of Finland. Euratom-TEKES Annual Seminar 2013

Fusion Nuclear Science and T e T chnology Progr ogr m Issues and Strategy for Fusion Nuclear Science Facility (FNSF)

High Performance Engineering

Realization of Fusion Energy: How? When?

The Application of Technology Readiness Levels in Planning the Fusion Energy Sciences Program. M. S. Tillack. ARIES Project Meeting 4 5 September2008

Roadmap Panel. 11:00 13:00 Tuesday, 17 September Auditorium Palau de Congressos de Barcelona. Moderated by Mohamed Abdou

Gyung-Su Lee National Fusion R & D Center Korea Basic Science Institute

Research Thrust for Reliable Plasma Heating and Current Drive using ICRF

Contributions of Advanced Design Activities to Fusion Research

Market Survey on availability of engineering effort to perform R&D, preparatory and final design for diagnostics Remote Handling connector

DEVELOPING A PROJECT ROADMAP

Framework for a Road Map to Magnetic Fusion Energy. Status Report

A new approach to funding, accelerating, and commercializing fusion. R. Mumgaard CEO --Commonwealth Fusion Systems NAS comments, PPPL, April 12, 2018

ATS seminar Riikka Virkkunen Head of Research Area Systems Engineering

Rosatom Approach to IPR Management in Collaborative Projects on Innovations

PROJECT GRANTED UNDER INDO-EUROPEAN COOPERATION ON RENEWABLE ENERGY

Launcher Study for KSTAR 5 GHz LHCD System*

A Roadmap toward Fusion DEMO Reactor (first report)

FUTURE IAEA ROLES IN SUPPORT OF SUSTAINABLE NUCLEAR ENERGY. Roberto Cirimello Argentina

Wind Energy Technology Roadmap

2. Composing and characteristics of EAST

The ARCHER Project. NC2I Workshop, 18 March, Brussels. The pied ARCHER de page Project, NC2I Workshop, 18 March 2015, Brussels

Heating Issues. G.Granucci on behalf of the project team

Real-time Systems in Tokamak Devices. A case study: the JET Tokamak May 25, 2010

Worldwide Timelines for Fusion Energy. Laila El-Guebaly 11/19/2017

Lower Hybrid. Ron Parker Alcator C-Mod PAC Meeting January January 2006 Alcator C-Mod PAC Meeting 1

Approach for Development and Commercialization of Micro and NanoTechnologies for Aerospace Applications Dr. OUDEA Coumar EADS-ST, and Member of Board

Technology Evaluation. David A. Berg Queen s University Kingston, ON November 28, 2017

Chinese Intellectual Property Right Regime and Independent Innovation of Enterprises

Overview of Design and R&D Activities towards a European DEMO Tony Donné, Gianfranco Federici

Commission proposal for Horizon Europe. #HorizonEU THE NEXT EU RESEARCH & INNOVATION PROGRAMME ( )

A SysML Model of the Tokamak Subsystems involved in a DEMO pulse

High Voltage Instrumentation Cables for the ITER Superconducting Magnet Systems

Hamid AÏT ABDERRAHIM Deputy DG of SCK CEN, Director of MYRRHA or

Results and Achievements of the ARCHER Project

TCP on Solar Power and Chemical Energy Systems (SolarPACES TCP)

Innovative Approaches in Collaborative Planning

European Wind Energy Technology Roadmap

Abstract. PEGASUS Toroidal Experiment University of Wisconsin-Madison

French sodium-cooled fast reactor Simulation Program

Applying systems thinking to safety assurance of Nuclear Power Plants

Operational progress of 170GHz 1MW ECH system in KSTAR

Magnetics and Power System Upgrades for the Pegasus-U Experiment

D1.3: Innovation Management Guidelines

DELIVERABLE SEPE Exploitation Plan

1. History of IP in JAPAN

Technology & Manufacturing Readiness RMS

Status of Japanese DA

Nuclear Infrastructure Support

The UK Generic Design Assessment

NUGENIA position paper. Ageing of Low Voltage Cable in Nuclear Environment. 12 February 2015

IAEA activities in support of accelerator-based research and applications

NSNI Priorities related to Advanced Nuclear Designs

NEPIO s Role in Incorporating 3S into the Nuclear Power Programme

A Modular Commercial Tokamak Reactor with Day Long Pulses

Invitation and Guidance for Community Input FESAC Transformative Enabling Capabilities (TEC) Subcommittee 4/21/17

Technical Readiness Level For Plasma Control

JOINT CTF-SCF/TFC.15/3 November 2, Joint Meeting of the CTF and SCF Trust Fund Committees Washington, D.C. Monday, November 9, 2015

Design study for JT-60SA ECRF system and the latest results of JT-60U ECRF system

IIRSA INDICATIVE TERRITORIAL PLANNING METHODOLOGY REVISION OF THE IIRSA PROJECT PORTFOLIO GTE ANDEAN HUB

High Energy Density Physics in the NNSA

CABINET SECRETARY S SPEECH DURING THE OFFICIAL LAUNCH OF THE ONLINE TRANSACTIONAL MINING CADSTRE SYSTEM Salutations

Special Newsletter Best Practices

WNA Survey on Licensing. Christian Raetzke WNA CORDEL Director of Licensing 2 nd MDEP Conference, Paris, 16 Sept 2011

PFC components development from ITER to DEMO. Igor MAZUL

System Upgrades to the DIII-D Facility

NASA Ground and Launch Systems Processing Technology Area Roadmap

Statement of Work (SOW) inemi Environmentally Sustainable Electronics TIG Value Recovery from End-of-Life Electronics

Draft executive summaries to target groups on industrial energy efficiency and material substitution in carbonintensive

Physics, Technologies and Status of the Wendelstein 7-X Device

Design of the COMPASS Upgrade Tokamak

Data users and data producers interaction: the Web-COSI project experience

Digitisation Plan

Technology Transfer and Climate Change: International Flows, Barriers and Frameworks

EXISTING MARINE RENEWABLE ENERGY ROAD- MAPS

Constellation Systems Division

Status of the KSTAR Superconducting Magnet System Development

Score grid for SBO projects with an economic finality version January 2019

ETCC First Quarter-2012 Meeting CPUC Update. Ayat Osman, Ph.D. March 29, 2012 PG&E PEC, San Francisco

FP7-INFRASTRUCTURES

Future UAS Software Procurement

APSEC President s Report

Development Status of KSTAR LHCD System

Flexblue : a Subsea Reactor Project Considerations for its licensing July, 2013

The INTERREG IV(a) Fostering Long Term Initiatives in Ports project Newhaven Port and Properties Ltd cross border workshop

Mission and Goals 2018/19

- Energiforsk Nuclear Safety Related Instrumentation and Control

Climate Change Innovation and Technology Framework 2017

Participatory backcasting: A tool for involving stakeholders in long term local development planning

STRATEGIC ORIENTATION FOR THE FUTURE OF THE PMR:

Transcription:

A Pathway to DEMO - Activities for DEMO in Korea JP-US Workshop on Fusion Power Plant and Related Advanced Technologies with participations of EU and Korea Feb. 22, 2011

Ⅰ. R&D for Fusion Energy in Korea Ⅱ. Planning & Framework for K-DEMO Ⅲ. Issues for Consideration Ⅳ. Summary and Prospect

I. R&D for Fusion Energy Supporting Law and Program KSTAR & ITER Planning Study for DEMO

Legal Basis of Government Support for Fusion Energy Fusion Energy Development Promotion Law To establish a long-term and sustainable legal framework for fusion energy development phases. To promote industries and institutes which participating the fusion energy development by supports and benefit. One of the strength of the Fusion Energy development of Korea (2007. 3 ~ ) Fusion Energy Development Promotion Program The Government of Korea to issue at every five years from 2007 To Publicize the R&D Strategies and Implementing Plans for Fusion Energy Reviewing the current program in 2011 and preparing for the 2 nd program active in 2012 ~ 2017 4

KSTAR ( I ) - Evolution 1 st campaign (2008) 2 nd campaign (2009) 3 rd campaign (2010) PFC coverage : 1.54m 2 PFC coverage : 11.08 m 2 PFC coverage : 52.94 m 2 + IVCC+Cryopump 5

KSTAR ( II ) R&D for DEMO beyond ITER Enhanced Plasma performance eventually to continuous operation Plasma-Material Interaction Diagnostics First Plasma ( 08) Second Campaign ( 09) Divertor Plasma ( 10) 133kA 0.25sec 1.5Tesla 320kA 3.6sec 3.0Tesla 720kA 5.2sec 3.0 T Exploring H-mode ( 11) Long pulse H-mode ( 12) 6

ITER Contribution of Korea 2. Vacuum Vessel 21.1% 1.TF Superconductor 20.18% 5. Blanket Shield Block 10.5% 3. Vacuum Ports 73.5% 4. Blanket First Wall 10.5% 6. Assembly Tools 100% 8. Tritium Storage & Supply System 88% 9. Power Supply 38% 10. Diagnostics 3.54% 7. Thermal Shield 100% Strengthen Industry base for DEMO 7

DEMO Activity Initiation DEMO Planning and R&D Activity Initiation by National Fusion Research Institute by installing Advanced Project Division since 2009 KSTAR & ITER DEMO Toward DEMO Gap study R&D Portfolio & Cross-cutting Required R&D Facilities and Infrastructure DEMO Planning & Design Government, Industry, International collaboration 8

Ⅱ. Planning & Framework for K-DEMO Framework for Strategic Planning Scopes for each Staged Program

Framework for Strategic Planning National Strategies and Policies, Strategic Plan of NFRI Set Vision, Mission and Strategic Objectives of the Program SWOT and Matched Pair Analysis Establish Key Strategies and Strategic Initiatives Set Sub Programs and Develop Implementation Plans 10

SWOT and Matched Pair Analysis Consistencies in the National Policies and Strategies Solid R&D Basis: IT Infra, KSTAR and ITER Lack of Resources and Infra DEMO Program with Immature Technologies A Blue Ocean Technology with Huge Amount of Economic Values The Earlier the Realization, the Greater the Value Technology Protectionism and Exclusive Collaboration Immature Technologies, Markets and Industries 11

Strategic Plan / Key Strategies & Strategic Initiatives Key Strategies Strategic Initiatives Demo Researches in parallel with KSTAR and ITER Form a Global DEMO Program Cross Cutting and Portfolio Management in the Global Contexts rather than Domestic Deploy Science Business Activities with the Interim R&D Deliverables IT Based Delayed Investment to mitigate the risks incurred by being the first mover. 12

Strategic Initiatives & Implementing Measures (I) Strategic Initiatives Implementing Measures Utilize NPP technologies to cross-cut the design study of DEMO Plant; Incorporate fusion research outcomes immediately and continuously; Make the best use of IT technologies; Prove the inherent safety; Early involvement of the licensing body Form or join a multi national DEMO Program; Get the feed backs from ITER, IFMIF, CTF, etc through international collaboration. Carry out R&D portfolio management and cross-cutting in the global contexts; Operate VR, ubiquitous, real-time Fusion DEMO Research Center 13

Strategic Initiatives & Implementing Measures (II) Strategic Initiatives Implementing Measures Share the research plan with the industries to discover the science business activities; Deploy strategic co-research projects with the plant industries with the deliverables Develop an economic feasibility evaluation model for the fusion energy development; Delay the Investment until the feasibility will be verified with IT based FEED study Implement the DEMO Program with phased Sub-Programs; Carry out risk mitigation in the global contexts. 14

Phased Development Program for K-DEMO Program Definition Environmental Analysis SWOT Analysis for Open Innovation Key Strategies & Strategic Initiatives Portfolio Management/Cross-Cutting Ideas 15

Process for Developing Implementation Plans National Technology Breakdown Frame National Strategies and Policies AHP Analysis R&D Portfolio Management Previous Studies DEMO R&D Techno-Tree Identify the DEMO R&D Activities (WBS of the DEMO R&D Program) Cross Cutting Idea WBS of the DEMO Gap Study Project Frame Chart Collaboration Plan based on the Open Innovation Strategy Define Cost Account of the DEMO R&D Program Define the R&D Deliverables Identify the Test Facilities to Validate and Verify the Deliverables 16

the 2 nd phase - DEMO R&D Program ( I ) Scope of the Program Develop Technologies for the Design, Fabrication and Construction of DEMO Systems and Components Complete DEMO FEED and Prove Economic and Technical Feasibilities; Construct the Validation Test Facilities and Validate the Design Methods Milestones Forecast 2014 2018 Define DEMO Design Concept Front-end DEMO R&D Activities DEMO Reactor System Design Study DEMO Plant System Design Study DEMO FEED & Prove Feasibilities Site Selection Start DEMO Design 17

the 2 nd phase - DEMO R&D Program ( II ) Phased R&D to Facilitate Portfolio Management DEMO Plant Construction DEMO Plant FEED (2019-2021) To Validate the Feasibilities Validation Tests for the Design Methods (2019 - ) DEMO Plant Safety and Licensing Study DEMO Plant Design Study (2015 2018) DEMO Reactor Design Study DEMO Plant Design Study DEMO Plant Safety and Licensing concept Study DEMO Plant Design Concept Study (2012 2014) DEMO Reactor Design Concept Study DEMO Plant Design Concept Study Foundations and Backgrounds NPP Engineering Technologies KSTAR and ITER DEMO Preparatory Sub- Program (2009 2011) Fusion and Material Technologies 18

DEMO R&D Facilities for Design Validation Test R&D and Test Facilities Plan to be Proposed 19

the 3 rd phase - DEMO Construction Program ( I ) Scope of the Program Design and Construct the Fusion DEMO Plant; Test Materials, Components and Systems; Demonstrate Power Generation Milestones Forecast 2022 2024 2025 2029 2033 2035 2036 Construction Permit Start Excavation Select the Materials Start Installation of Major Components Start Commissio ning Start Operation First Electric Power Generation 20

the 3 rd phase - DEMO Construction Program ( II ) A Hypothetical View of Fusion DEMO Plant 21

IV. Issues for Consideration Parallel Approach & Plant Engineering Fusion Reactor Materials & Component Licensing of DEMO Other Issues

Parallel Approach DEMO Research including Plant Engineering in parallel with KSTAR and ITER. Discussion Issues From ITER to DEMO, Substantial Engineering Works Expected; More than 10 years to Complete these Works; Coolant & operating temperature and Thermal Cycle of DEMO Plant Design & Regulatory requirement for DEMO Plant Risks Associated with Investments to the Immature Technologies. Strategies Recommended Launch DEMO Design study immediately not to lose the opportunities With the Risk Mitigation Measures: Until the Economic and Technical Feasibilities verified with Front End Engineering Design Design methods and safety analysis methods for DEMO Plant 23

Fusion Reactor Materials and Component Test Discussion Issues Need 14 MeV high neutron flux with a large irradiated area to Test DEMO Reactor in-vessel Components; Impossible to generate without DEMO; Component Tests in DEMO Average thermal load of DEMO Reactor ~ 4.5 MW/m 2 ; Not easy to generate this heat load continuously; Validation Tests for DEMO Reactor Coolant System in DEMO Need a large amount of and long-term investment to develop Materials and build Irradiation Test Facilities; Material Irradiation Tests in DEMO A Perspective to consider as a pathway to DEMO. The authors are willing to join the global collaborations for the subject matters 24

Staged Licensing of DEMO Reactor ( I ) Issues of DEMO Licensing Need 14 MeV high neutron flux with a large irradiated area to Test DEMO Reactor In-vessel Components; Need a heat source of 4.5 MW/m 2 at average to verify DEMO Design methods ; Hard to get these prerequisites without DEMO; DEMO need the Components and Materials Tested. Staged Licensing Concept Build DEMO with an achievable Licensing and regulation. Test Materials, Components and Systems with DEMO; Upgrade the Components and Systems as Necessary. 25

Staged Licensing of DEMO Reactor (II) 26

Other Issues Coolant Selection Supercritical Water vs. He gas vs. Liquid Metal Compatible with Engineering Feasibility and Advances in Technology Thermal Cycle Maximum exploitation of proven Technologies and Experiences from NPP Design basis for Power Plant Design DEMO Reactor vs. DEMO Plant Design of DEMO Reactor cannot be isolated from the Plant supporting systems Systems Engineering Approach KSTAR as DEMO Test Bed Burning Plasma cannot be controlled without successful control of D-D Focused studies on the subject matters and plasma facing components 27

IV. Summary and Prospect

Activities and Prospect for DEMO K-DEMO Development Plan is in preparation for reviews to set up National Strategic Plan. Preparing the 2 nd Fusion Energy Development Promotion Program active in 2012 ~ 2017 Planning DEMO R&D portfolio and required R&D Facilities based on Open Innovation Promoting collaboration with Nuclear Power Plant industry for Plant Engineering - Maximum exploitation of Nuclear Power Plant technology and experience. Initiating DEMO design study - focused study to make the best use of proven technologies for realizable pathway to K- DEMO achievable as early as possible. Possible types of multi-national consortium or collaboration to realize DEMO in near future 29

National Fusion Research Institute realizes Green Korea getting joined with human beings, environment and technology