Hybrid “Fusion-Fission” Reactor Facility on Thorium Fuel with a Source of Additional Thermonuclear Neutrons
https://doi.org/10.25205/2541-9447-2021-16-1-21-43
Abstract
The results of full-scale numerical experiments of a hybrid thorium-containing fuel cell facility operating in a close-to-critical state due to a controlled source of fusion neutrons are discussed in this work. The facility under study was a complex consisting of two blocks. The first block was based on the concept of a high-temperature gas-cooled thorium reactor core. The second block was an axially symmetrical extended plasma generator of additional neutrons that was placed in the near-axial zone of the facility blanket. The calculated models of the blanket and the plasma generator of D-T neutrons created within the work allowed for research of the neutronic parameters of the facility in stationary and pulse-periodic operation modes. This research will make it possible to construct a safe facility and investigate the properties of thorium fuel, which can be continuously used in the epithermal spectrum of the considered hybrid fusion-fission reactor.
Keywords
About the Authors
I. V. ShamaninRussian Federation
Igor V. Shamanin, Doctor of Science (Physics and Mathematics), Professor, Head of Department
Tomsk
A. V. Arzhannikov
Russian Federation
Andrey V. Arzhannikov, Doctor of Science (Physics and Mathematics), Professor, Head Researcher, Budker Institute of Nuclear Physics; Professor, Novosibirsk State University
Novosibirsk
V. V. Prikhodko
Russian Federation
Vadim V. Prikhodko, Candidate of Science (Physics and Mathematics), Senior Researcher
Novosibirsk
V. M. Shmakov
Russian Federation
Vladimir M. Shmakov, Candidate of Science (Physics and Mathematics), Leading Researcher
Snezhinsk
D. G. Modestov
Russian Federation
Dmitry G. Modestov, Senior Research Fellow
Snezhinsk
I. O. Lutsik
Russian Federation
Igor O. Lutsik, PhD student
Tomsk
S. D. Polozkov
Russian Federation
Sergey D. Polozkov, PhD student
Tomsk
S. V. Bedenko
Russian Federation
Sergey V. Bedenko, Candidate of Science (Physics and Mathematics), Associate Professor
Tomsk
References
1. Shamanin I., Bedenko S., Chertkov Y., Gubaydulinet I. Gas-Cooled Thorium Reactor with Fuel Block of the Unified Design. Advances in Materials Science and Engineering, 2015, vol. 2015, p. 392721. DOI 10.1155/2015/392721
2. Shamanin I. V., Grachev V. M., ChertkovYu. B. et al. Neutronic properties of hightemperature gas-cooled reactors with thorium fuel. Annals of Nuclear Energy, 2018, vol. 113, p. 286–293.
3. Arzhannikov A. V., Anikeev A. B., Beklemishev A. D. et al. Subcritical Assembly with Thermonuclear Neutron Source as Device for Studies of Neutron-physical Characteristics of Thorium Fuel. AIP Conference Proceedings, 2016, vol. 1771, p. 090004. DOI 10.1063/1.4964246
4. Arzhannikov A. V., Bedenko S. V., Ivanov A. A. et al. Isotopic Composition Changes in the Fuel Assembly of a Hybrid Reactor with a Neutron Source Based on D-D Reaction in Plasma Column (Computer Simulation of a Long Operation Cycle). Siberian Journal of Physics, 2018, vol. 13, no. 4, p. 5–24. (in Russ.)
5. Arzhannikov A., Bedenko S., Shmakov V. et al. Gas-cooled thorium reactor at various fuel loadings and its modification by a plasma source of extra neutrons. Nuclear Science and Techniques, 2019, vol. 30 (181). DOI 10.1007/s41365-019-0707-y
6. Arzhannikov A. V., Shmakov V. M., Modestov D. G. et al. Facility to study neutronic properties of a hybrid thorium reactor with a source of thermonuclear neutrons based on a magnetic trap. Nuclear Engineering and Technology, 2020, vol. 52 (11), p. 2460–2470.
7. Shamanin I. V., Bedenko S. V., Shmakov V. M. et al. Power density dynamics in a nuclear reactor with an extended in-core pulse-periodic neutron source based on a magnetic trap. Izvestiya Wysshikh Uchebnykh Zawedeniy, Yadernaya Energetika, 2020, vol. 2, p. 17–26.
8. Beklemishev A., Anikeev A., Astrelin V. et al. Novosibirsk Project of Gas-Dynamic Multiple-Mirror Trap. Fusion Science and Technology, 2013, vol. 63, p. 46–51.
9. Anikeev A. V., Bagryansky P. A., Beklemishev A. D. et al. The GDT Experiment: Status and Recent Progress in Plasma Parameters. Fusion Science and Technology, 2015, vol. 68 (1), p. 1–7.
10. Gandini A., Salvatores M. The Physics of Subcritical Multiplying Systems. Journal of Nuclear Science and Technology, 2002, vol. 39 (6), p. 673–686.
11. Shiroya S., Yamamotoc A., Shina K. et al. Basic study on neutronics of future neutron source based on accelerator driven subcritical reactor concept in Kyoto University Research Reactor Institute (KURRI). Progress in Nuclear Energy, 2002, vol. 40 (3–4), p. 489–496.
12. Knastera J., Arbeiter F., Carac P. et al. IFMIF, the European-Japanese efforts under the Broader Approach agreement towards a Li(d, xn) neutron source: Current status and future options. Nuclear Materials and Energy, 2016, vol. 9, p. 46–54.
13. Wu Y. Design and R&D Progress of China Lead-Based Reactor for ADS Research Facility. Engineering, 2016, vol. 2 (1), p. 124–131.
14. Abderrahim H. A., Baeten P., Bruyn D. D., Fernandez R. MYRRHA – A multi-purpose fast spectrum research reactor. Energy Conversion and Management, 2012, vol. 63, p. 4–10.
15. Yang L., Zhan W. A New Concept for ADS Spallation Target: Gravity-Driven Dense Granular Flow Targets. Thorium Energy for the World. Springer, Cham, 2016.
16. Gudowski W., Arzhanov V., Broeders C. et al. Review of the European project – Impact of Accelerator-Based Technologies on nuclear fission safety (IABAT). Progress in Nuclear Energy, 2001, vol. 38, p. 135–151.
17. Bedenko S. V., Ghal-Eh N., Lutsik I. O., Shamanin I. V. A fuel for generation IV nuclear energy system: Isotopic composition and radiation characteristics. Applied Radiation and Isotopes, 2019, vol. 147, p. 189–196.
18. Yurov D. V., Prikhodko V. V., Tsidulko Yu. A. Nonstationary Model of an Axisymmetric Mirror Trap with Nonequilibrium Plasma. Plasma Physics Reports, 2016, vol. 42 (3), p. 210–225.
19. Kandiev Y. Z., Kashaeva E. A., Khatuntsev K. E. et al. PRIZMA status. Annals of Nuclear Energy, 2015, vol. 82, p. 116–120.
20. Evaluated Nuclear Data Library Descriptions, Nuclear Energy Agency. URL: https://oecdnea.org/dbdata/data/nds_eval_libs.htm(2020) (accessed 03.03.2019).
21. Leppaanen J., Pusa M., Viitanen T., Valtavirta V., Kaltiaisenaho T. The Serpent Monte Carlo code: Status, development and applications in 2013. Annals of Nuclear Energy, 2015, vol. 82, p. 142–150.
22. Kotelnikov I. A., Chernoshtanov I. S., Prikhodko V. V. Stability of the Drift-Cyclotron Loss-Cone and Double-Humped Modes in Multispecies Plasmas. Plasma and Fusion Research, 2019, vol. 14, p. 2403001. DOI 10.1585/pfr.14.2403001
23. Linnik S. A., Gaydachuk A. V., Shamanin I. V. Istochnik plazmy tlejushhego razrjada s effektom pologe katoda dlja modifikacii svojstv poverhnosti i nanesenija pokrytij. Izvestija Tomskogo politehnicheskogo universiteta, 2011, vol. 318, p. 86–88. (in Russ.)
Review
For citations:
Shamanin I.V., Arzhannikov A.V., Prikhodko V.V., Shmakov V.M., Modestov D.G., Lutsik I.O., Polozkov S.D., Bedenko S.V. Hybrid “Fusion-Fission” Reactor Facility on Thorium Fuel with a Source of Additional Thermonuclear Neutrons. SIBERIAN JOURNAL OF PHYSICS. 2021;16(1):21-43. (In Russ.) https://doi.org/10.25205/2541-9447-2021-16-1-21-43