SMRs – overview, international developments, safety features and the GRS simulation chain
Andreas SCHAFFRATH, Andreas WIELENBERG, Robert KILGER, Armin SEUBERT
SMRs – overview, international developments, safety features and the GRS simulation chain
The Gesellschaft für Anlagen- und Reaktorsicherheit (GRS) gGmbH as the main technical support organization for the German Federal Government in nuclear safety has been dealing with small modular reactors (SMRs) for about one decade since SMRs are one interesting option for new builds in most countries worldwide which continue to use nuclear energy for commercial electricity production. Currently four different SMR designs are in operation, four in construction, one is licensed, and further 12 are in a licensing process. In this paper, definitions, history, and current developments of SMRs are presented. Subsequently, selected trends of SMR development such as factory fabrication and transport, compactness and modularity, core design, improved core cooling, exclusion of accidents, features for preventing and limiting the impact of severe accidents, economic viability, competitiveness and licensing are discussed. Modeling gaps of the GRS simulation chain programs with a view to applications in nuclear licensing procedures are identified and a strategy for closing these gaps is presented. Finally, selected work on the extension and improvement of the simulation chain and first generic test analyses are presented.
small modular reactors (SMRs) / history / recent developments / safety aspects / simulation chain of the Gesellschaft für Anlagen- und Reaktorsicherheit (GRS)
[1] |
Nuclear Street. IAEA Evaluates SMR Technology. 2020–11–04, available at website of Nuclear Street
|
[2] |
Spiegel Wissenschaft. Strahlendes Comeback – Bidens Atomplan. 2020–11–19, available at website of Spiegel Wissenschaft
|
[3] |
Delmastro D F. CAREM25, SMR design and technology development in Argentina and status of the construction of CAREM25 prototype. In: Proceedings of the 2nd Meeting of the Technical Working Group for Small and Medium-sized or Modular Reactors, Vienna , Austria, 2019
|
[4] |
World Nuclear News. Canadian Government invests in SMR Technology. 2020–10–16, available at website of World Nuclear News
|
[5] |
World Energy. China National Nuclear Corporation (CNNC) has announced the launch of a project to construct an ACP100 small modular reactor. 2019–07–23, available at website of World Energy
|
[6] |
BioAge Group, LLC. CEA, EDF, Naval Group, and Technic Atome unveil “NUWARD”: jointly developed Small Modular Reactor (SMR) project. 2019–09–17, available at website of Electricité de France
|
[7] |
The Engineer. UK SMR consortium urges action on jobs and exports. 2020–11–12, available at website of the Engineer
|
[8] |
Buchholz S, Krüssenberg A, Schaffrath A. Study on the safety and international developments of Small Modular Reactors. GRS Technical Report GRS-376, 2015
|
[9] |
International Atomic Energy Agency. Advances in small modular reactor technology developments, 2020 Edition. IAEA Technical Report, 2020
|
[10] |
Schaffrath A. SMRs – Overview on international developments and safety features, focus session international innovation: small modular reactors: a major element of the future of nuclear? In: Annual Meeting on Nuclear Technology, Berlin, Germany, 2019
|
[11] |
Schaffrath A, Buchholz S. SMRs – Overview on international developments and safety features. International Journal for Nuclear Power, 2019, 64(6/7): 336–347
|
[12] |
World Nuclear Association. Small modular power reactors. 2019–05–19, available at website of World Nuclear Association
|
[13] |
Buchholz S, Krüssenberg A, Schaffrath A. Safety and international development of small modular reactors (SMR) – a study of GRS. International Journal for Nuclear Power, 2015, 60(11): 645 –653
|
[14] |
Buchholz S, Schaffrath A, Krüssenberg A. Study of safety and international development of SMR. In: EUROSAFE, Munich, 2016
|
[15] |
US Army Corps of Engineers. Army nuclear power program 1954 – 1976. 2017, available at website of the US Army Corps of Engineers
|
[16] |
US Army Corps of Engineers. Experimental reactors. 2020, available at website of the US Army Corps of Engineers
|
[17] |
Suid L H. The Army’s Nuclear Power Program: The Evolution of a Support Agency. New York: Greenwood Press, 1990
|
[18] |
Artisiuk V. SMR technology development in Russia and capacity building supports for embarking countries. In: IAEA Technical Meeting on Technology Assessment of Small Modular Reactors for Near Term Deployment, Tunis, 2017
|
[19] |
Carelli M D, Ingersoll D T. Handbook of small modular nuclear reactors. 2nd ed. Oxford, UK: Woodhead Publishing, 2020
|
[20] |
International Atomic Energy Agency. Status of small and medium sized reactor design. IAEA Technical Report, 2012
|
[21] |
International Nuclear Safety. Bilibino nuclear power plant. 1999–02–22, available at website of International Nuclear Security
|
[22] |
Beliaev V, Polinichev V. Basic safety principles of KLT-40C reactor plants. In: Proceedings of the Advisory Group Meeting on Small Power and Heat Generation Systems on the Basis of Propulsion and Innovative Reactor Technologies, Obninsk. Vienna, 2000
|
[23] |
Zverev D L, Pakhomov A N, Polunichev V I,
CrossRef
Google scholar
|
[24] |
Ruskin L. Russia’s floating nuclear power plants worries Alaskans. 2019–09–09, available at website of the Eye of the Artic
|
[25] |
Patel S. Indian-designed nuclear reactor breaks record for continuous operation. 2019–02–01, available at website of Power
|
[26] |
World Nuclear News. CNNC launches demonstration SMR Project. 2019–07–22, available at website of World Nuclear News
|
[27] |
Nuklearforum Schweiz. China: Baubeginn für schwimmendes Kernkraftwerk. 2016–11–10, available at website of the Nuklearforum Schweiz (in German)
|
[28] |
World Nuclear News. CGN starts construction of offshore reactor. 2020–11–07, available at website of World Nuclear News
|
[29] |
Marcel C, Delmastro D, Celeste Magni M,
|
[30] |
World Nuclear News. Construction of CAREM underway. 2014–03–18, available at website of World Nuclear News
|
[31] |
Zhang Z, Dong Y, Li F,
CrossRef
Google scholar
|
[32] |
World Nuclear News. Cold test completed at first HTR-PM reactor. 2020–10–20, available at website of World Nuclear News
|
[33] |
International Atomic Energy Agency. IAEA and GIF expand collaboration in innovative reactors. 2018–04–10, available at website of the IAEA
|
[34] |
Gesellschaft für Anlagen- und Reaktorsicherheit GRS gGmbH. Fukushima Daiichi March 11, 2011–Course of the Accident, Radiological Consequences. Technical Report, GRS-S-56, 5th Edition, 2016 (in German)
|
[35] |
Bundesgesetzblatt. Dreizehntes Gesetz zur Änderung des Atomgesetzes (13. AtGÄndG), 11. Blatt. 2011
|
[36] |
Gesellschaft für Anlagen- und Reaktorsicherheit (GRS) gGmbH. 2020, available at website of the Gesellschaft für Anlagen- und Reaktorsicherheit (GRS) gGmbH (in German)
|
[37] |
Grandy D W. Factory fabrication of small modular reactor vessel assemblies. In: NRC RIC: Use of Advanced Manufacturing Technology for Power Reactors, 2019
|
[38] |
Bailey J. NuScale – Blazing the trail for modular SMRs. Energy Huntsville, 2018
|
[39] |
Barton C. Transporting small factory built reactors and modular components. 2011–09–29, available at website of The Nuclear Green Revolution
|
[40] |
World Nuclear News. Viewpoint: the advantages of small modular reactors. 2018–10–29, available at website of World Nuclear News
|
[41] |
Subki H. Advances in development and deployment of small modular reactor design and technology, In: ANNuR – IAEA – U.S. NRC Workshop on Small Modular Reactor Safety and Licensing, Vienna, Austria, 2016
|
[42] |
Dixit A, Hibiki T, Ishii M,
CrossRef
Google scholar
|
[43] |
Humpich K D. SMRs – only a new fad? 2013–12–11, available at website of Nachrichten aus der Kerntechnik (in German)
|
[44] |
International Atomic Energy Agency. Safety related terms for advanced nuclear plants, TECDOC-626. 1999
|
[45] |
Electric Power Institute. Advanced light water reactor requirements, ALWR Passive Plant (Volume 3), Revision 8, Report EPRI. 1999
|
[46] |
Federal Office for the Safety of Nuclear Waste Management (BASE). Safety requirements for nuclear power plants, in the version dated 03.03.2015. 2015–03–03, available at the website of Federal Ministry for the Environment, Nature Conservation, Building and Nuclear Safety
|
[47] |
Schaffrath A, Krüssenberg A, Buchholz S, Wielenberg A. Necessary improvements of the GRS simulation chain for the simulation of light-water-cooled SMRs. Independent Journal for Nuclear Engineering Kerntechnik, 2018, 83(3): 169–177
CrossRef
Google scholar
|
[48] |
Mascari F, Vella G, Woods B G,
|
[49] |
Mascari F, Vella G, Woods B G,
CrossRef
Google scholar
|
[50] |
Chenais J. SMR technology–the French approach. In: IAEA Technical Meeting on Technology Assessment of Small Modular Reactors for Near Term Deployment, Tunis, 2017
|
[51] |
Locatelli G, Bingham C, Mancini N. Small modular reactors: a comprehensive overview of their economics and strategic aspects. Progress in Nuclear Energy, 2014, 73: 75–85
CrossRef
Google scholar
|
[52] |
Engelbrecht H. SMR – it’s all about economics, focus session international innovation: small modular reactors: a major element of the future of nuclear? In: Annual Meeting on Nuclear Technology, Berlin, Germany, 2019
|
[53] |
Schaffrath A. The nuclear simulation of GRS. In: 1st Chinese/German Symposium on Fundamentals of Advanced Nuclear Safety Technology, Shanghai, China, 2015
|
[54] |
Schaffrath A, Sonnenkalb A, Sievers J,
CrossRef
Google scholar
|
[55] |
Wang J, Li X, Allison C,
|
[56] |
Schaffrath A, Wielenberg A, Sonnenkalb M,
|
[57] |
Seubert A. 3-D finite element few-group diffusion code and its application to generation IV reactor concepts. In: PHYSOR, Physics of Reactors, Cambridge, 2020
|
[58] |
Seubert A, Bousquet J, Henry R. Recent advances of the FEM neutronics code for safety assessment of (v) SMR, generation IV and other innovative concepts. In: International Conference on Mathematics and Computations Methods Applied in Nuclear Science and Engineering, Raleigh, North Carolina, 2021
|
[59] |
Bousquet J, Seubert A, Henry R. New finite element neutron kinetics coupled code system FENNECS/ATHLET for safety assessment of (very) small and micro reactors. Journal of Physics: Conference Series, 2020(1698): 012008
CrossRef
Google scholar
|
[60] |
Seubert A, Velkov K. Stand-alone neutronic solutions of the OECD/NEA MHTGR-350 MW core design Benchmark, In: Annual Meeting on Nuclear Technology, Frankfurt, France, 2014
|
[61] |
Varaine F, Marsault P, Chenaud M S,
|
[62] |
New CRP: Neutronics Benchmark of CEFR Start-Up Tests (131032). 2018–02–21, available at website of the International Atomic Energy Agency
|
[63] |
Hu G, Hu R, Kelly J M, Ortensi J. Multi-physics simulations of heat pipe micro reactor. Argonne National Laboratory, Technical Report: ANL-NSE-19/25, 2019
|
[64] |
Leppänen J, Pusa M, Viitanen T,
CrossRef
Google scholar
|
[65] |
Buchholz S, Mull T,
|
[66] |
VTT Technical Research Centre of Finland Ltd. VTT coordinates an EU project that paves the way for small modular reactors in Europe. 2019–03–28, available at the website of VTT Technical Research Centre of Finland Ltd.
|
[67] |
Krüssenberg A, Graß C,
|
[68] |
Wang X. Simulation für Betrieb und Störfall eines kleinen modularen Reaktors (SMR) mPower (DWR) mit ATHLET, Dissertation for the Master’s Degree. Munich: Technical University of Munich, 2012 (in German)
|
[69] |
International Atomic Energy Agency. Advances in small modular reactor technology developments: a supplement. IAEA ARIS Status Report, 2016
|
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