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Your search keyword '"Doinikov, D.N."' showing total 9 results
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9 results on '"Doinikov, D.N."'

1. Neutron diagnostic system at the Globus-M2 tokamak

Author

Iliasova, M.V., Shevelev, A.E., Khilkevitch, E.M., Bakharev, N.N., Skrekel, O.M., Minaev, V.B., Doinikov, D.N., Gin, D.B., Gusev, V.K., Kornev, V.A., Naidenov, V.O., Novokhatskii, A.N., Petrov, Yu.V., Polunovsky, I.A., Sakharov, N.V., Shchegolev, P.B., Telnova, A.Yu., and Varfolomeev, V.I.

Published
2022
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5. Development of the NPA based diagnostic complex in ITER

Author

Afanasyev, V.I., primary, Chernyshev, F.V., additional, Kozlovsky, S.S., additional, Melnik, A.D., additional, Marinin, G.V., additional, Mironov, M.I., additional, Navolotsky, A.S., additional, Nesenevich, V.G., additional, Petrov, M.P., additional, Petrov, S.Ya., additional, Yatsenko, A.V., additional, Chugunov, I.N., additional, Doinikov, D.N., additional, Iliasova, M.V., additional, Gin, D.B., additional, Khilkevitch, E.M., additional, Polunovsky, I.A., additional, Shevelev, A.E., additional, Artemev, K.K., additional, Krasilnikov, V.A., additional, Kormilitsyn, T.M., additional, Kovalev, A.O., additional, Mokeev, A.N., additional, and Turnyanskiy, M.R., additional

Published
2022
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6. Tokamak research at the Ioffe Institute

Author

Bakharev, N.N., primary, Abdullina, G.I., additional, Afanasyev, V.I., additional, Altukhov, A.B., additional, Askinazi, L.G., additional, Babinov, N.A., additional, Bazhenov, A.N., additional, Belokurov, A.A., additional, Blekhshtein, M.D., additional, Bondarchuk, E.N., additional, Bukreev, I.M., additional, Bulanin, V.V., additional, Chernakov, An.P., additional, Chernyshev, F.V., additional, Chugunov, I.N., additional, Dmitriev, A.M., additional, Doinikov, D.N., additional, Dyachenko, V.V., additional, Esipov, L.A., additional, Gin, D.B., additional, Gorbunov, A.V., additional, Gurchenko, A.D., additional, Gusakov, E.Z., additional, Gusev, V.K., additional, Heuraux, S., additional, Iliasova, M.V., additional, Irzak, M.A., additional, Kamenshikov, S.N., additional, Kavin, A.A., additional, Khilkevitch, E.M., additional, Khromov, N.A., additional, Kiselev, E.O., additional, Kiviniemi, T.P., additional, Kobelev, A.A., additional, Kornev, V.A., additional, Koval, A.N., additional, Kouprienko, D.V., additional, Krikunov, S.V., additional, Krutkin, O.L., additional, Kurskiev, G.S., additional, Lashkul, S.I., additional, Lebedev, S.V., additional, Lechte, C., additional, Leerink, S., additional, Litvinov, A.E., additional, Lobanov, K.M., additional, Masyukevich, S.V., additional, Martynov, A.A., additional, Medvedev, S.Yu., additional, Melnik, A.D., additional, Minaev, V.B., additional, Mineev, A.B., additional, Mironov, M.I., additional, Miroshnikov, I.V., additional, Mukhin, E.E., additional, Naidenov, V.O., additional, Navolotsky, A.S., additional, Nesenevich, V.G., additional, Niskala, P., additional, Novokhatskii, A.N., additional, Oshuev, K.Yu., additional, Patrov, M.I., additional, Petrov, A.V., additional, Petrov, M.P., additional, Petrov, S.Ya., additional, Petrov, Yu.V., additional, Polunovsky, I.A., additional, Popov, A.Yu., additional, Razdobarin, A.G., additional, Razumenko, D.V., additional, Rozhdestvensky, V.V., additional, Sakharov, N.V., additional, Samsonov, D.S., additional, Saveliev, A.N., additional, Senichenkov, V.A., additional, Shchegolev, P.B., additional, Shevelev, A.E., additional, Sladkomedova, A.D., additional, Smirnov, A.I., additional, Smirnov, A.S., additional, Solokha, V.V., additional, Solovei, V.A., additional, Stepanov, A.Yu., additional, Telnova, A.Yu., additional, Tokarev, V.A., additional, Tolstyakov, S.Yu., additional, Tretinnikov, P.V., additional, Tereschenko, I.B., additional, Tukachinsky, A.S., additional, Tukhmeneva, E.A., additional, Varfolomeev, V.I., additional, Varshavchick, L.A., additional, Yashin, A.Yu., additional, Zhilin, E.G., additional, and Zhubr, N.A., additional

Published
2019
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7. Runaway electron studies with hard x-ray and microwave diagnostics in the FT-2 lower hybrid current drive discharges

Author

Shevelev, A.E., primary, Khilkevitch, E.M., additional, Lashkul, S.I., additional, Rozhdestvensky, V.V., additional, Pandya, S.P., additional, Plyusnin, V.V., additional, Altukhov, A.B., additional, Kouprienko, D.V., additional, Chugunov, I.N., additional, Doinikov, D.N., additional, Esipov, L.A., additional, Gin, D.B., additional, Iliasova, M.V., additional, Naidenov, V.O., additional, Polunovsky, I.A., additional, Sidorov, A.V., additional, and Kiptily, V.G., additional

Published
2017
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8. Development of gamma-ray diagnostics for ITER

Author

Chugunov, I.N., primary, Shevelev, A.E., additional, Gin, D.B., additional, Kiptily, V.G., additional, Gorini, G., additional, Nocente, M., additional, Tardocchi, M., additional, Doinikov, D.N., additional, Naidenov, V.O., additional, and Khilkevitch, E.M., additional

Published
2011
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9. Reconstruction of distribution functions of fast ions and runaway electrons in fusion plasmas using gamma-ray spectrometry with applications to ITER.

Author

Shevelev, A.E., Khilkevitch, E.M., Kiptily, V.G., Chugunov, I.N., Gin, D.B., Doinikov, D.N., Naidenov, V.O., Litvinov, A.E., Polunovskii, I.A., and Contributors, JET-EFDA

Subjects
PLASMA heating, GAMMA ray spectrometry, DISTRIBUTION (Probability theory), NUCLEAR reactions, FAST ions, BREMSSTRAHLUNG, NUCLEAR fusion, SPECTRUM analysis, DECONVOLUTION (Mathematics)
Abstract

Gamma-ray spectrometry on ITER can provide information both on confined fusion alpha particles for optimization of plasma heating and runaway electrons, which is important for safe reactor operations. For the purpose of deconvolution of gamma-ray spectra recorded in fusion plasma experiments the DeGaSum code has been developed. The code can be applied for processing of both spectra of monoenergetic gamma rays, which are born in nuclear reactions produced by alpha particles and other fast ions, and continuous bremsstrahlung spectra generated by runaway electrons in the MeV range in the plasma and reactor structure materials. Gamma-ray spectrometer response functions and bremsstrahlung spectra generated by electrons in the MeV energy range are calculated and used in the DeGaSum code. The deconvolution of the discrete spectra allows the identification of nuclear reactions, which give rise to gamma rays, and the calculation of their intensities. By applying the code for continuous hard x-ray spectra, the runaway electron energy distribution can be inferred. It can provide the maximal energy of runaway electrons with accuracy, which satisfies the ITER project requirements. The code has been used for processing of spectra recorded in JET experiments. An application of the deconvolution technique for gamma-ray emission measurements on ITER is discussed. [ABSTRACT FROM AUTHOR]

Published
2013
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