Tokamak DEMO-FNS: Concept of magnet system and vacuum chamber

E. A. Azizov; B. V. Kuteev; A. N. Labusov; V. E. Lukash; I. I. Maximova; S. Yu. Medvedev; A. B. Mineev; V. P. Muratov; V. S. Petrov; I. Yu. Rodin; V. Yu. Sergeev; A. V. Spitsyn; V. N. Tanchuk; V. A. Trofimov; R. R. Khayrutdinov; M. V. Khokhlov; E. G. Kuzmin; V. A. Krylov; S. S. Ananyev; V. A. Belyakov; E. N. Bondarchuk; A. A. Voronova; A. A. Golikov; P. R. Goncharov; A. Yu. Dnestrovskij; E. R. Zapretilina; D. P. Ivanov; A. A. Kavin; I. V. Kedrov; A. V. Klischenko; B. N. Kolbasov; S. V. Krasnov; A. I. Krylov; Yu. S. Shpanskiy

doi:10.1134/S1063778816070036

Tokamak DEMO-FNS: Concept of magnet system and vacuum chamber

Autores: Azizov E.A.¹, Kuteev B.V.¹, Labusov A.N.², Lukash V.E.¹, Maximova I.I.², Medvedev S.Y.¹, Mineev A.B.²^,3, Muratov V.P.², Petrov V.S.¹, Rodin I.Y.², Sergeev V.Y.⁴, Spitsyn A.V.¹, Tanchuk V.N.², Trofimov V.A.², Khayrutdinov R.R.¹, Khokhlov M.V.², Kuzmin E.G.², Krylov V.A.², Ananyev S.S.¹, Belyakov V.A.²^,3, Bondarchuk E.N.², Voronova A.A.², Golikov A.A.¹, Goncharov P.R.⁴, Dnestrovskij A.Y.¹, Zapretilina E.R.², Ivanov D.P.¹, Kavin A.A.², Kedrov I.V.², Klischenko A.V.¹, Kolbasov B.N.¹, Krasnov S.V.², Krylov A.I.¹, Shpanskiy Y.S.¹
Afiliações:
1. National Research Center Kurchatov Institute
2. D.V. Efremov Scientific Research Institute of Electrophysical Apparatus
3. St. Petersburg State University
4. Peter the Great St. Petersburg Polytechnic University
Edição: Volume 79, Nº 7 (2016)
Páginas: 1125-1136
Seção: Article
URL: https://journals.rcsi.science/1063-7788/article/view/190703
DOI: https://doi.org/10.1134/S1063778816070036
ID: 190703

Citar

Texto integral

Acesso aberto
Acesso é fechado

Acesso está concedido
Acesso é fechado

Somente assinantes

Resumo
Sobre autores
Bibliografia
Arquivos suplementares
Estatísticas

Resumo

The level of knowledge accumulated to date in the physics and technologies of controlled thermonuclear fusion (CTF) makes it possible to begin designing fusion—fission hybrid systems that would involve a fusion neutron source (FNS) and which would admit employment for the production of fissile materials and for the transmutation of spent nuclear fuel. Modern Russian strategies for CTF development plan the construction to 2023 of tokamak-based demonstration hybrid FNS for implementing steady-state plasma burning, testing hybrid blankets, and evolving nuclear technologies. Work on designing the DEMO-FNS facility is still in its infancy. The Efremov Institute began designing its magnet system and vacuum chamber, while the Kurchatov Institute developed plasma-physics design aspects and determined basic parameters of the facility. The major radius of the plasma in the DEMO-FNS facility is R = 2.75 m, while its minor radius is a = 1 m; the plasma elongation is k₉₅ = 2. The fusion power is P_FUS = 40 MW. The toroidal magnetic field on the plasma-filament axis is B_t0 = 5 T. The plasma current is I_p = 5 MA. The application of superconductors in the magnet system permits drastically reducing the power consumed by its magnets but requires arranging a thick radiation shield between the plasma and magnet system. The central solenoid, toroidal-field coils, and poloidal-field coils are manufactured from, respectively, Nb₃Sn, NbTi and Nb₃Sn, and NbTi. The vacuum chamber is a double-wall vessel. The space between the walls manufactured from 316L austenitic steel is filled with an iron—water radiation shield (70% of stainless steel and 30% of water).

Palavras-chave

fusion neutron source, tokamak, fusion, fission hybrid facility, superconducting magnet system, vacuum chamber, radiation shield

Arquivos suplementares

Ação

1. JATS XML

Baixar

Nome de usuário
Senha
Lembrar usuário

Esqueceu a senha?	Cadastro

Nome de usuário
Senha
Lembrar usuário

Esqueceu a senha?	Cadastro

Tokamak DEMO-FNS: Concept of magnet system and vacuum chamber

Texto integral

Resumo

Palavras-chave

Sobre autores

E. Azizov

B. Kuteev

A. Labusov

V. Lukash

I. Maximova

S. Medvedev

A. Mineev

V. Muratov

V. Petrov

I. Rodin

V. Sergeev

A. Spitsyn

V. Tanchuk

V. Trofimov

R. Khayrutdinov

M. Khokhlov

E. Kuzmin

V. Krylov

S. Ananyev

V. Belyakov

E. Bondarchuk

A. Voronova

A. Golikov

P. Goncharov

A. Dnestrovskij

E. Zapretilina

D. Ivanov

A. Kavin

I. Kedrov

A. Klischenko

B. Kolbasov

S. Krasnov

A. Krylov

Yu. Shpanskiy

Arquivos suplementares