DEVELOPMENT OF ACTIVELY COOLED PLASMA-FACING COMPONENTS FOR TORE SUPRA

被引:19
|
作者
Lipa, M. [1 ]
Schlosser, J. [1 ]
Escourbiac, F. [1 ]
机构
[1] CEA, IRFM, F-13108 St Paul Les Durance, France
关键词
eplasma-facing components; CFC-copper bonding; pressurized hot water cooling circuit; OUTBOARD PUMP LIMITER; LONG-PULSE OPERATION; INNER 1ST WALL; HEAT-FLUX; EXPERIENCE FEEDBACK; DESIGN; PERFORMANCE; QUALITY; TESTS;
D O I
10.13182/FST09-A9171
中图分类号
TL [原子能技术]; O571 [原子核物理学];
学科分类号
0827 ; 082701 ;
摘要
To fulfill the Tore Supra mission (the realization and study of high-performance long-duration. discharges), the development of reliable actively cooled plasma-facing components is mandatory. This was foreseen from the beginning of Tore Supra, and since 1985, the Tort, Supra team has been involved in the development and fabrication of actively cooled plasma-facing components. The initial configuration of the machine in 1988 included a 12 m(2) inner first wall made of stainless steel tubes armoured with brazed graphite, outer water-cooled stainless steel panels, and modular pump limiters. This configuration, using the inner wall as limiter. allowed 20- to 30-s-duration plasma discharges to be performed. Further progress required the development of a more reliable brazing technique and a limiter support system mechanically independent of the vacuum vessel. A new configuration (Composants Internes et Limiteur project), using a completely new concept of high-heat-flux components (including notably a braze-free bond between carbon-fiber composite tiles and copper heat sink), was therefore launched in 1997. With this new configuration, discharges up to 6 min with 1 GJ of injected and removed power were achieved in 2003.
引用
收藏
页码:1124 / 1149
页数:26
相关论文
共 50 条
  • [1] Actively cooled plasma facing components in Tore Supra
    Garin, P
    FUSION ENGINEERING AND DESIGN, 2001, 56-57 : 117 - 123
  • [2] BRAZED GRAPHITE FOR ACTIVELY COOLED PLASMA-FACING COMPONENTS IN TORE SUPRA - DESCRIPTION, TESTS, AND PERFORMANCE
    LIPA, M
    CHAPPUIS, P
    DESCHAMPS, P
    FUSION TECHNOLOGY, 1991, 19 (04): : 2041 - 2048
  • [3] Actively cooled plasma facing components in Tore Supra:: From material and design to operation
    Magaud, Ph.
    Monier-Garbet, P.
    Travere, J. M.
    Grosman, A.
    JOURNAL OF NUCLEAR MATERIALS, 2007, 362 (2-3) : 174 - 180
  • [4] The design of actively cooled plasma-facing components
    Scheerer, M
    Bolt, H
    Gervash, A
    Linke, J
    Smid, I
    PHYSICA SCRIPTA, 2001, T91 : 98 - 103
  • [5] High heat flux actively cooled plasma facing components development, realisation and first results in Tore Supra
    Grosman, A
    FUSION ENGINEERING AND DESIGN, 2005, 74 (1-4) : 49 - 57
  • [6] Development of actively cooled components for the Tore Supra toroidal pump limiter
    Schlosser, J
    Chappuis, P
    Durocher, A
    Moncel, L
    Garin, P
    PHYSICA SCRIPTA, 2001, T91 : 94 - 97
  • [7] HIGH-QUALITY ACTIVELY COOLED PLASMA-FACING COMPONENTS FOR FUSION
    NYGREN, RE
    FUSION ENGINEERING AND DESIGN, 1995, 28 : 3 - 12
  • [8] Actively cooled plasma-facing components and coolant removal system in KSTAR
    Bang, Eunnam
    Jeong, Nam-Yong
    Hong, Suk-Ho
    Kong, Jongdae
    Park, Kaprai
    FUSION ENGINEERING AND DESIGN, 2017, 124 : 276 - 282
  • [9] Preliminary results and lessons learned from upgrading the Tore Supra actively cooled plasma facing components (CIEL project)
    Cordier, JJ
    FUSION ENGINEERING AND DESIGN, 2003, 66-68 : 59 - 67
  • [10] Ten years of maintenance on Tore Supra actively cooled components
    Cordier, JJ
    Chantant, M
    Chappuis, P
    Durocher, A
    FUSION ENGINEERING AND DESIGN, 2000, 51-52 : 949 - 954