Blanket design using FLiBe in helical-type fusion reactor FFHR

被引:11
|
作者
Sagara, A
Motojima, O
Mitarai, O
Imagawa, S
Watanabe, K
Yamanishi, H
Chikaraishi, H
Kohyama, A
Matsui, H
Muroga, T
Noda, N
Noda, T
Ohyabu, N
Satow, T
Shishkin, AA
Tanaka, S
Terai, T
Yamazaki, K
Yamamoto, J
机构
[1] KYUSHU TOKAI UNIV,KUMAMOTO 862,JAPAN
[2] KYOTO UNIV,UJI 611,JAPAN
[3] TOHOKU UNIV,INST MAT RES,SENDAI,MIYAGI 980,JAPAN
[4] NATL RES INST MET,TSUKUBA,IBARAKI 305,JAPAN
[5] NSC KHARKOV PHYS & TECHNOL INST,KHARKOV,UKRAINE
[6] UNIV TOKYO,TOKYO 113,JAPAN
关键词
D O I
10.1016/S0022-3115(97)00154-2
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The blanket design for a force-free helical reactor (FFHR) is presented, which is a demo-relevant heliotron-type D-T fusion reactor based on the first all-superconducting-coils device, LHD (large helical device) under construction in NIFS at present. For the goal of a self-ignited reactor of 3 GW thermal output, the design parameters at the first stage for concept definition of FFHR have been investigated. The main feature of FFHR is a force-free-like configuration of helical coils, which makes it possible to simplify the coil supporting structure and to use a high magnetic field instead of high plasma beta. The other feature is the selection of molten-salt FLiBe as a self-cooling tritium breeder for mainly safety reasons owing to the low tritium inventory, low reactivity with air and water, low pressure operation, and low MHD resistance compatible with a high magnetic field. In particular, as common issues in fusion reactors, the FLiBe blanket system in FFHR is expressed in detail by showing engineering possibilities to overcome key issues on tritium permeation, material corrosion, heat transfer, operation pressure, etc. The basic design for maintenance and repair of the blanket is also discussed. (C) 1997 Elsevier Science B.V.
引用
收藏
页码:147 / 152
页数:6
相关论文
共 50 条
  • [41] Effect of coil configuration parameters on the mechanical behavior of the superconducting magnet system in the helical fusion reactor FFHR
    Tamura, Hitoshi
    Goto, Takuya
    Yanagi, Nagato
    Miyazawa, Junichi
    Tanaka, Teruya
    Sagara, Akio
    Ito, Satoshi
    Hashizume, Hidetoshi
    FUSION ENGINEERING AND DESIGN, 2019, 146 : 586 - 589
  • [42] Physics analyses on the core plasma properties in the helical fusion DEMO reactor FFHR-d1
    Miyazawa, J.
    Suzuki, Y.
    Satake, S.
    Seki, R.
    Masaoka, Y.
    Murakami, S.
    Yokoyama, M.
    Narushima, Y.
    Nunami, M.
    Goto, T.
    Suzuki, C.
    Yamada, I.
    Sakamoto, R.
    Yamada, H.
    Sagara, A.
    NUCLEAR FUSION, 2014, 54 (04)
  • [43] HELICAL GEOMETRY EFFECT ON TRITIUM BREEDING IN HELIOTRON FUSION-REACTOR BLANKET
    HASEGAWA, H
    NAKASHIMA, H
    MATSUI, T
    OHTA, M
    NUCLEAR SCIENCE AND ENGINEERING, 1984, 86 (04) : 405 - 409
  • [44] Conceptual design activities and key issues on LHD-type reactor FFHR
    Sagara, A.
    Mitarai, O.
    Imagawa, S.
    Morisaki, T.
    Tanaka, T.
    Mizuguchi, N.
    Dolan, T.
    Miyazawa, J.
    Takahata, K.
    Chikaraishi, H.
    Yamada, S.
    Seo, K.
    Sakamoto, R.
    Masuzaki, S.
    Muroga, T.
    Yamada, H.
    Fukada, S.
    Hashizume, H.
    Yamazaki, K.
    Mito, T.
    Kaneko, O.
    Mutoh, T.
    Ohyabu, N.
    Noda, N.
    Komori, A.
    Sudo, S.
    Motojima, O.
    FUSION ENGINEERING AND DESIGN, 2006, 81 (23-24) : 2703 - 2712
  • [45] Novel divertor design to mitigate neutron irradiation in the helical reactor FFHR-d1
    Tamura, Hitoshi
    Tanaka, Teruya
    Goto, Takuya
    Miyazawa, Junich
    Masuzaki, Suguru
    Watanabe, Tsuguhiro
    Yanagi, Nagato
    Sagara, Akio
    Ito, Satoshi
    Hashizume, Hidetoshi
    FUSION ENGINEERING AND DESIGN, 2015, 98-99 : 1629 - 1633
  • [46] Development of three-dimensional neutronics calculation system for design studies on helical reactor FFHR
    Tanaka, T.
    Sagara, A.
    Muroga, T.
    Youssef, M. Z.
    FUSION ENGINEERING AND DESIGN, 2006, 81 (23-24) : 2761 - 2766
  • [47] DESIGN PROGRESS ON THE HIGH-TEMPERATURE SUPERCONDUCTING COIL OPTION FOR THE HELIOTRON-TYPE FUSION ENERGY REACTOR FFHR
    Yanagi, Nagato
    Mito, Toshiyuki
    Champailler, Romain
    Bansal, Gourab
    Tamura, Hitoshi
    Sagara, Akio
    FUSION SCIENCE AND TECHNOLOGY, 2011, 60 (02) : 648 - 652
  • [48] Thermal network for breeding blanket analysis and design in fusion reactor
    Yun, Maroosol
    Choi, Seungyeong
    Song, Ho Seop
    Moon, Hokyu
    Ahn, Mu-Yeong
    Cho, Hyung Hee
    INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 2024, 234
  • [49] NEUTRONICS DESIGN OF TRITIUM BREEDING BLANKET FOR FUSION EXPERIMENTAL REACTOR
    MORI, S
    SEKI, Y
    KAWASAKI, H
    JOURNAL OF NUCLEAR SCIENCE AND TECHNOLOGY, 1983, 20 (02) : 154 - 162
  • [50] Experimental research on molten salt thermofluid technology using a high-temperature molten salt loop applied for a fusion reactor Flibe blanket
    Toda, S
    Chiba, S
    Yuki, K
    Omae, M
    Sagara, A
    FUSION ENGINEERING AND DESIGN, 2002, 63-64 : 405 - 409