Abstract
Nuclear Fusion is the power of the sun and all shining stars in the universe. Controlled nuclear fusion toward ultimate energy sources for human beings has been developed intensively worldwide for this half a century. A fusion power plant is free from concern of exhaustion of fuels and production of CO2. Therefore, it has a very attractive potential to be eternal fundamental energy sources and will contribute to resolving problems of climate change. On the other hand, unresolved issues in physics and engineering still remain. It will take another several decades to realize a fusion power plant by integration of advanced science and engineering such as control of high-temperature plasma exceeding 100 million °C and breeding technology of tritium by generated neutrons. The research and development has entered the phase of engineering demonstration to extract 500 MW of thermal energy from fusion reaction in the 2030s. The demonstration of electric power generation by 2050 is targeted.
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References
Abernethy RG (2016) Predicting the performance of tungsten in a fusion environment: a literature review. Energ Mater 11:388–399
Atzeni S, Meyer-Ter-Vehn J (2004) The physics of inertial fusion. Clarendon Press-Oxford
Aymar R (2001) Summary of the ITER final design report. ITER document G A0 FDR 4 01-06-28 R 0.2, Garching ITER Joint Work Site July 2001, 9
Bachmann C et al (2018) Overview over DEMO design integration challenges and their impact on component design concepts. Fusion Eng Des 136(Part A):87–95
Barabaschi P et al (2019) Progress of the JT-60SA project. Nucl Fusion 59:112005
Bell M et al (1995) Overview of DT results from TFTR. Nucl Fusion 35:1429–1436
Bethe H, Peierls R (1935) Quantum theory of the diplon. Proc R Soc Lond A 148:146–156
Betti R, Hurricane OA (2016) Inertial-confinement fusion with lasers. Nat Phys 12:435–448
Bigot B (2019) Progress toward ITER’s first plasma. Nucl Fusion 59:112001
Braams CM, Stott PE (2002) Nuclear fusion: half a century of magnetic confinement fusion research. IOP Publishing Ltd, London
Bruzzone P et al (2018) High temperature superconductors for fusion magnets. Nucl Fusion 58:103001
Campbell DJ et al (2019) Innovations in technology and Science R&D for ITER. J Fusion Energ 38:11–71
Chen FF (2011) An indispensable truth, how fusion power can save the planet. Springer, London
Claessens M (2020) ITER: the Giant fusion reactor. Springer Nature Switzerland, Cham
Clery D (2013) A piece of the sun. Harry N, Abrams
Dinklage A et al (2007) Physics model assessment of energy confinement time scaling in stellarators. Nucl Fusion 47:1265–1273
Dolan TJ et al (2013) Magnetic fusion technology. Springer, London
Donné AJ (2019) Roadmap towards fusion electricity. J Fusion Energ 38:503–505
Eliezer S, Eliezer Y (2001) The fourth state of matter: an introduction to plasma science. IOP Publishing Ltd, London
EUROfusion (2018) European research roadmap to the realization of fusion energy. Available at https://www.euro-fusion.org/fileadmin/user_upload/EUROfusion/Documents/2018_Research_roadmap_long_version_01.pdf
Federici G (2019) Overview of the DEMO staged design approach in Europe. Nucl Fusion 59:066013
Forsberg C et al (2019) Fusion blankets and fluoride-salt-cooled high-temperature reactors with flibe salt coolant: common challenges, tritium control and opportunities for synergistic development strategies between fission, fusion, and solar salt technology. Nuclear Technology (published online)
Garin P et al (2009) Main baseline of IFMIF/EVEDA project. Fusion Eng Des 84:259–264
Gi K et al (2018) Contribution of fusion energy to low-carbon development under the Paris Agreement and Accompanying Uncertainties. In: Proceedings of the 27th international conference on fusion energy (Ahmedabad, 2018) IAEA, Vienna, FIP/P3–2
Giancarli L et al (2018) ITER TMB program and associated engineering. Fusion Eng Des 136(Part B):815–821
Gibson A (1998) Deuterium-tritium plasmas in the Joint European Torus (JET): behavior and implications. Phys Plasmas 5:1839–1846
Glaser A, Goldston RJ (2012) Proliferation risks of magnetic fusion energy: clandestine production, covert production and breakout. Nucl Fusion 52:043004
Hawryluk RJ et al (1998) Fusion plasma experiments on TFTR: a 20 year retrospective. Phys Plasmas 5:1577–1589
Helander P (2014) Theory of plasma confinement in non-axisymmetric magnetic field. Rep Prog Phys 77:087001
Hoshino T (2015) Innovative lithium recovery technique from seawater by using world-first dialysis with a lithium ionic superconductor. Desalination 359:59–63
Iiyoshi A et al (1999) Overview of the large helical device project. Nucl Fusion 39:1245–1256
Ikeda K (2010) ITER on the road to fusion energy, K. Ikeda. Nucl Fusion 50:014002
Imagawa S et al (2010) Overview of LHD superconducting magnet system and its 10-year operation. Fusion Sci Technol 58:560–570
Ishida S et al (1999) JT-60U high performance regime. Nucl Fusion 39:1211–1226
ITER Physics Basis Editors (1999) ITER physics basis. Nucl Fusion 39:2137–2638
ITER Research Plan within the Staged Approach (Level III – Provisional Version) (2018) REPORT No. ITR-18-003, ITER organization
Jacquinot J (2010) Fifty years in fusion and the way forward. Nucl Fusion 50:014001
Kasahara H et al (2014) In: Proceedings of the 25th international conference on fusion energy (St. Petersburg, 2014) IAEA, Vienna, EX/7-3
Kato T et al (2001) First test results for the ITER central solenoid model coil. Fusion Eng Des 56–57:59–70
Katoh Y et al (2007) Current status and critical issues for development of SiC composites for fusion applications. J Nucl Mater (367–370):659–671
Kaye and Laby Online (2005) Tables of physical & chemical constants, 16th edn. 2.1.4 Hygrometry Version 1.0. Available at http://www.kayelaby.npl.co.uk/
Kikuchi M (2011) Frontiers in fusion research. Springer, London
Klinger T et al (2019) Overview of first Wendelstein 7-X high-performance operation. Nucl Fusion 59:112004
Kohyama A et al (1996) Low-activation ferritic and martensitic steels for fusion application. J Nucl Mater 233–237 Part 1: 138–147
Koizumi N et al (2005) Development of advanced Nb3Al superconductors for a fusion demo plant. Nucl Fusion 45:431–438
Kondo K et al (2020) Validation of the linear IFMIF prototype accelerator (LIPAc) in Rokkasho. Fusion Eng Des 153:111503
Kovari M et al (2017) Tritium resources available for fusion reactors. Nucl Fusion 58:026010
Królas W, Ibarra A (2019) The IFMIF-DONES project. Nucl Phys News 29:28–32
Lawson JD (1957) Some criteria for a power producing thermonuclear reactor. Proc Phys Soc London, Sect B 70:6–10
Leonard AW (2018) Plasma detachment in divertor tokamaks. Plasma Phys Controlled Fusion 60:044001
Lie J et al (2010) Magnetic fusion development for global warming suppression. Nucl Fusion 50:014005
Maisonnier D (2018) RAMI: the main challenge of fusion nuclear technologies. Fusion Eng Des 136(Part B):1202–1208
Martone M (ed) (1996) IFMIF-international fusion materials irradiation facility conceptual design activity, final report. ENEA Frascati Report, RT/ERG/FUS/96/11 (December, 1996)
McCraken G, Stott P (2012) Fusion: the energy of the universe. Elsevier Academic Press, San Diego
Meade D (2010) 50 years of fusion research. Nucl Fusion 50:014004
MEXT (2018) A roadmap toward fusion DEMO reactor (first report). Ministry of Education, Culture, Sports, Science, and Technology. Available at https://www.mext.go.jp/b_menu/shingi/gijyutu/gijyutu2/074/shiryo/__icsFiles/afieldfile/2018/11/08/1408259_2_1.pdf
Mima K (2010) Inertial fusion development: the path to global warming suppression. Nucl Fusion 50:014006
Mitchell N, Devred A (2017) The ITER magnet system: configuration and construction satatus. Fusion Eng Des 123:17–25
Miyamae et al (2020) Fuel flow and stock during deuterium-deuterium start-up of fusion reactor with advanced plasma model. Fusion Eng Des 160:111794
Muroga T et al (2002) Vanadium alloys –overview and recent results. J Nucl Mater 307–311:547–554
Neilson H et al (2012) International Perspectives on a Path to MFE DEMO. In: Proceedings of the 24th international conference on fusion energy (San Diego, 2012) IAEA, Vienna, SEE/1-1
Norgett MJ et al (1975) A proposed method of calculating displacement dose rates. Plasma Phys Controlled Fusion 33:50–54
Nührenberg J et al (1995) Overview of Wendelstein 7-X theory. Fusion Technol 27:71–78
Ochiai K et al (2020) Conceptual design progress of advanced fusion neutron source. Nucl Fusion on line
Ohyama N et al (2009) Overview of JT-60U results towards the establishment of advanced tokamak operation. Nucl Fusion 49:104007
Okano K et al (2018) An action plan of Japan toward development of demo reactor. Fusion Eng Des 136:183–189
Ongena J et al (2016) Magnetic-confinement fusion. Nat Phys 12:398–410
Osakabe M et al (2018) Preparation and commissioning for the LHD deuterium experiment. IEEE Trans Plasma Sci 46:2324–2331
Pamera J, Solano ER (2001) From JET to ITER: preparing the next step in fusion research, EFDA-JET-PR(01)16, EFDA, Culham Science Centre, Abington
Ross L (2010) Superconductivity: its role, its success and its setbacks in the large hadron collider of CERN. Superconductor. Sci Technol 23:034001
Rubel M (2018) Fusion neutrons: tritium breeding and impact on wall materials and components of diagnostic systems. J Fusion Energ 38:315–329
Sagara A et al (2014) Helical reactor design FFHR-d1 an c1 for steady-state DEMO. Fusion Eng Des 89:2114–2120
Sakharov AD, Leontovitch MA (eds) (1961) Plasma physics and the problem of controlled thermonuclear reactions. 1:21. Pergamon, London
Soukhanovskii VA (2017) A review of radiative detachment studies in tokamak advanced magnetic divertor configurations. Plasma Phys Controlled Fusion 59:064005
Spitzer L Jr et al (1954) Problems of the stellarator as a useful power source. PM-S-14, USAEC NYO-6047
Stacey WM (2010) Fusion: an introduction to the physics and technology of magnetic confinement fusion. Wiley-VCH
Tanabe T (2017) Tritium: fuel of fusion reactors. Springer
Team JET (1992) Fusion energy production from deuterium-tritium plasma in the JET tokamak. Nucl Fusion 32:187–203
Tobita K et al (2018) Overview of the DEMO conceptual design activity in Japan. Fusion Eng Des 136(Part B):1024–1031
Tsunematsu T (2009) Broader approach to fusion energy. Fusion Eng Des 84:122–124
Uo K (1961) The confinement of plasma by the Heliotron magnetic field. J Phys Soc Jpn 16:1380–1395
Webster AJ (2003) Fusion: power for the future. Phys Educ 38:135–142
Wesson J (2011) Tokamaks (the international series of monographs on physics), 4th edn. Oxford University Press, Oxford
White D (2019) Small, modular and economically attractive fusion enabled by high temperature superconductor. Phil Trans R Soc A 377:20180354
Yamada H et al (2005) Characterization of energy confinement in net-current free plasmas using the extended international stellarator database. Nucl Fusion 45:1684–1693
Yamada H et al (2009) 10 years of engineering and physics achievements by the large helical device project. Fusion Eng Des 84:186–193
Yamada H et al (2015) Japanese endeavors to establish technological bases for DEMO. Fusion Eng Des 109–111(Part B):1318–1325
Yamada H et al (2016) Development of strategic establishment of technology bases for a fusion DEMO reactor in Japan. J Fusion Energ 35:4–26
Zhuang G et al (2019) Progress of the CFETR design. Nucl Fusion 59:112010
Zinkle SJ (2005) Fusion material science: overview of challenges and recent progress. Phys Plasmas 12:058101
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Yamada, H. (2021). Nuclear Fusion. In: Lackner, M., Sajjadi, B., Chen, WY. (eds) Handbook of Climate Change Mitigation and Adaptation. Springer, New York, NY. https://doi.org/10.1007/978-1-4614-6431-0_31-3
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DOI: https://doi.org/10.1007/978-1-4614-6431-0_31-3
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Nuclear Fusion- Published:
- 02 April 2021
DOI: https://doi.org/10.1007/978-1-4614-6431-0_31-3
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Fusion Energy- Published:
- 02 April 2015
DOI: https://doi.org/10.1007/978-1-4614-6431-0_31-2