S. N. Stolbov1,*, Yu. V. Drobyshevsky1, I. M. Anfimov2, V. A. Varlachev3, S. P. Kobeleva2, S. A. Nekrasov4, A. V. Korzhenevsky1, A. V. Oginov5
1Proteus LLC, Zelenograd 124498, Moscow, Russia.
2National Research Technological University “MISIS”, Moscow 119049, Russia.
3National Research Tomsk Polytechnic University, Tomsk 634034, Russia.
4Central Economic and Mathematical Institute of the Russian Academy of Sciences, Moscow 117418, Russia.
5Lebedev Physical Institute of the Russian Academy of Sciences, Moscow 119991, Russia.
*Corresponding author: S. N. Stolbov
References
[1] Semyonov I. Energy of the future: controlled thermonuclear fusion. What is the ITER fusion reactor and why is its creation so important? Materials of the lecture delivered on November 27, 2008 at FIAN. [Lecture notes]. 2008 Nov 27.
[2] Strelkov VS. VANT. Ser. Thermonuclear Fusion. 2016;39(1).
[3] Subbotin ML, Kurbatov DK, Filimonova EA. Review of the state of research of demonstration fusion reactors in the world. Vopr At Nauki Tekh Ser. 2010;(3):55-74.
[4] Golovin IN. Low-radioactive controlled thermonuclear fusion (reactors with D3He). IAE-4885/8. Moscow: IAE; 1989.
[5] Drobyshevskiy YV, Stolbov SN. Device for Formation of Directed Neutron Flux. Russian Federation patent RU 1821818. 1990.
[6] Drobyshevskiy YV, Stolbov SN. Method of controlled thermonuclear fusion and controlled thermonuclear reactor for its realization. Russian Federation patent RU 2056649. 1992.
[7] Stolbov SN, Drobyshevskiy YV, Anfimov IM, Varlachev VA, Kobeleva SP, Nekrasov SA, et al. Development of a focusing neutron control device in nuclear power engineering. Izv Vyssh Uchebn Zaved Yad Energet. 2021;(2).
[8] Drobyshevskiy YV, Stolbov SN, Korzhenevskiy AV, Anfimov IM, Kobeleva SP, Varlachev VA, et al. Development of focusing neutron control device in nuclear power engineering. At Energy. 2021;131(6):319-23.
[9] Drobyshevskiy YV, Anfimov IM, Varlachev VA, Kobeleva SP, Nekrasov SA, Stolbov SN. Instrumentation and Technique of Experiment. 2020;(1):1-6.
[10] Zeldovich YB, Gelfand BE, editors. Explosive Phenomena, Assessment and Consequences. Moscow: Mir.
[11] ROSFOND Library. Helium-3 [Internet]. Available from: ippe.ru/libr/pdf/02he.pdf
[12] Anderson IS, McGreevy R, Bilheux HZ. Neutron Imaging and Applications: A Reference for the Imaging Community. New York: Springer; 2009.
[13] Melnichenko YB, Wignall GD. Small-angle neutron scattering in materials science: recent practical applications. J Appl Phys. 2007;102:021101. doi:10.1063/1.2759200.
[14] Khaykovich B, Liu D, Resta G, Moncton DE, Gubarev MV. On the challenge of flux concentration at grazing incidence for neutrons and x-rays. Proc SPIE. 2012;8485:848509. doi:10.1117/12.929328.
[15] Gubarev MV, Ramsey BD, Engelhaupt DE, Burgess JM, Mildner DFR. An evaluation of grazing-incidence optics for neutron imaging. Nucl Instrum Methods Phys Res B. 2007;265:626-30.
[16] Kaplienko AV, Strebkov YS, Danilov IV, Korostelev AB, Solov'ev OV, Sviridenko MN, et al. Development and creation of the ITER internals (in Russian). At Energy. 2020;129(5):243-7.
[17] Denden O, Afanasiev VV, Al-Amin M. Modeling of the ITER equatorial neutron diagnostic equipment. At Energy. 2019;127(4):47-9.
[18] Belov AA, Kalitkin NN. Refined values of velocities of thermonuclear reactions. In: Equations of State and Phase Transitions. p. 291-4.
[19] Kap F. Physics and Technology of Nuclear Reactors. Moscow: Foreign Literature Publishers; 1960.
[20] Ryutov DD. OPEN traps. Asp Phys Sci. 1988;154(4).
How to cite this paper
The Concept of Creating a Thermonuclear Reactor with Neutron Heating (3He-D-T) Plasma
How to cite this paper: S. N. Stolbov, Yu. V. Drobyshevsky, I. M. Anfimov, V. A. Varlachev, S. P. Kobeleva, S. A. Nekrasov, A. V. Korzhenevsky, A. V. Oginov. (2025) The Concept of Creating a Thermonuclear Reactor with Neutron Heating (3He-D-T) Plasma. Scientific Access, 1(1), 33-41.
DOI: http://dx.doi.org/10.26855/sa.2025.06.008