Design, manufacture and initial operation of the beryllium components of the JET ITER-like wall

被引:13
|
作者
Riccardo, V. [1 ,4 ]
Lomas, P. [1 ,4 ]
Matthews, G. F. [1 ,4 ]
Nunes, I. [2 ,4 ]
Thompson, V. [1 ,4 ]
Villedieu, E. [3 ,4 ]
机构
[1] EURATOM CCFE Fus Assoc, Culham Sci Ctr, Abingdon OX14 3DB, Oxon, England
[2] Assoc EURATOM IST, IPFN Lab Assoc, IST, Lisbon, Portugal
[3] CEA, IRFM, F-13108 St Paul Les Durance, France
[4] JET EFDA, Culham Sci Ctr, Abingdon OX14 3DB, Oxon, England
基金
英国工程与自然科学研究理事会;
关键词
Beryllium; Plasma facing components; JET; Power handling; Disruption loads;
D O I
10.1016/j.fusengdes.2013.01.084
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
The aim of the JET ITER-like wall project was to provide JET with the plasma facing material combination now selected for the DT phase of ITER (bulk beryllium main chamber limiters and a full tungsten divertor) and, in conjunction with the upgraded neutral beam heating system, to achieve ITER relevant conditions. The design of the bulk Be plasma facing components had to be compatible with increased heating power and pulse length, as well as to reuse the existing tile supports originally designed to cope with disruption loads from carbon based tiles and be installed by remote handling. Risk reduction measures (prototypes, jigs, etc.) were implemented to maximize efficiency during the shutdown. However, a large number of clashes with existing components not fully captured by the configuration model occurred. Restarting the plasma on the ITER-like Wall proved much easier than for the carbon wall and no deconditioning by disruptions was observed. Disruptions have been more threatening than expected due to the reduced radiative losses compared to carbon, leaving most of the plasma magnetic energy to be conducted to the wall and requiring routine disruption mitigation. The main chamber power handling has achieved and possibly exceeded the design targets. (C) 2013 EURATOM. Published by Elsevier B.V. All rights reserved.
引用
收藏
页码:585 / 589
页数:5
相关论文
共 50 条
  • [31] Dust generation in tokamaks: Overview of beryllium and tungsten dust characterisation in JET with the ITER-like wall
    Rubel, M.
    Widdowson, A.
    Grzonka, J.
    Fortuna-Zalesna, E.
    Moon, Sunwoo
    Petersson, P.
    Ashikawa, N.
    Asakura, N.
    Hamaguchi, D.
    Hatano, Y.
    Isobe, K.
    Masuzaki, S.
    Kurotaki, H.
    Oya, Y.
    Oyaidzu, M.
    Tokitani, M.
    Abduallev, S.
    Abhangi, M.
    Abreu, P.
    Afzal, M.
    Aggarwal, K. M.
    Ahlgren, T.
    Ahn, J. H.
    Aho-Mantila, L.
    Aiba, N.
    Airila, M.
    Albanese, R.
    Aldred, V.
    Alegre, D.
    Alessi, E.
    Aleynikov, P.
    Alfier, A.
    Alkseev, A.
    Allinson, M.
    Alper, B.
    Alves, E.
    Ambrosino, G.
    Ambrosino, R.
    Amicucci, L.
    Amosov, V.
    Sunden, E. Andersson
    Angelone, M.
    Anghel, M.
    Angioni, C.
    Appel, L.
    Appelbee, C.
    Arena, P.
    Ariola, M.
    Arnichand, H.
    Arshad, S.
    FUSION ENGINEERING AND DESIGN, 2018, 136 : 579 - 586
  • [32] Characterization and heat flux testing of beryllium coatings on Inconel for JET ITER-like wall project
    Hirai, T.
    Linke, J.
    Sundelin, P.
    Rubel, M.
    Kuehnlein, W.
    Wessel, E.
    Coad, J. P.
    Lungu, C. P.
    Matthews, G. F.
    Pedrick, L.
    Piazza, G.
    PHYSICA SCRIPTA, 2007, T128 : 166 - 170
  • [33] PLASMA FACING MATERIALS FOR THE JET ITER-LIKE WALL
    Thomser, C.
    Bailescu, V.
    Brezinsek, S.
    Coenen, J. W.
    Greuner, H.
    Hirai, T.
    Linke, J.
    Lungu, C. P.
    Maier, H.
    Matthews, G.
    Mertens, Ph
    Neu, R.
    Philipps, V.
    Riccardo, V.
    Rubel, M.
    Ruset, C.
    Schmidt, A.
    Uytdenhouwen, I.
    FUSION SCIENCE AND TECHNOLOGY, 2012, 62 (01) : 1 - 8
  • [34] Overview of fuel inventory in JET with the ITER-like wall
    Widdowson, A.
    Coad, J. P.
    Alves, E.
    Baron-Wiechec, A.
    Barradas, N. P.
    Brezinsek, S.
    Catarino, N.
    Corregidor, V.
    Heinola, K.
    Koivuranta, S.
    Krat, S.
    Lahtinen, A.
    Likonen, J.
    Matthews, G. F.
    Mayer, M.
    Petersson, P.
    Rubel, M.
    Abduallev, S.
    Abhangi, M.
    Abreu, P.
    Afzal, M.
    Aggarwal, K. M.
    Ahlgren, T.
    Ahn, J. H.
    Aho-Mantila, L.
    Aiba, N.
    Airila, M.
    Albanese, R.
    Aldred, V.
    Alegre, D.
    Alessi, E.
    Aleynikov, P.
    Alfier, A.
    Alkseev, A.
    Allinson, M.
    Alper, B.
    Alves, E.
    Ambrosino, G.
    Ambrosino, R.
    Amicucci, L.
    Amosov, V.
    Sunden, E. Andersson
    Angelone, M.
    Anghel, M.
    Angioni, C.
    Appel, L.
    Appelbee, C.
    Arena, P.
    Ariola, M.
    Arnichand, H.
    NUCLEAR FUSION, 2017, 57 (08)
  • [35] Melt damage to the JET ITER-like Wall and divertor
    Matthews, G. F.
    Bazylev, B.
    Baron-Wiechec, A.
    Coenen, J.
    Heinola, K.
    Kiptily, V.
    Maier, H.
    Reux, C.
    Riccardo, V.
    Rimini, F.
    Sergienko, G.
    Thompson, V.
    Widdowson, A.
    Abhangi, M.
    Abreu, P.
    Aftanas, M.
    Afzal, M.
    Aggarwal, K. M.
    Aho-Mantila, L.
    Ahonen, E.
    Aints, M.
    Airila, M.
    Albanese, R.
    Alegre, D.
    Alessi, E.
    Aleynikov, P.
    Alfier, A.
    Alkseev, A.
    Allan, P.
    Almaviva, S.
    Alonso, A.
    Alper, B.
    Alsworth, I.
    Alves, D.
    Ambrosino, G.
    Ambrosino, R.
    Amosov, V.
    Andersson, F.
    Andersson Sunden, E.
    Angelone, M.
    Anghel, A.
    Anghel, M.
    Angioni, C.
    Appel, L.
    Apruzzese, G.
    Arena, P.
    Ariola, M.
    Arnichand, H.
    Arnoux, G.
    Arshad, S.
    PHYSICA SCRIPTA, 2016, T167
  • [36] Fuel retention studies with the ITER-Like Wall in JET
    Brezinsek, S.
    Loarer, T.
    Philipps, V.
    Esser, H. G.
    Gruenhagen, S.
    Smith, R.
    Felton, R.
    Banks, J.
    Belo, P.
    Boboc, A.
    Bucalossi, J.
    Clever, M.
    Coenen, J. W.
    Coffey, I.
    Devaux, S.
    Douai, D.
    Freisinger, M.
    Frigione, D.
    Groth, M.
    Huber, A.
    Hobirk, J.
    Jachmich, S.
    Knipe, S.
    Krieger, K.
    Kruezi, U.
    Marsen, S.
    Matthews, G. F.
    Meigs, A. G.
    Nave, F.
    Nunes, I.
    Neu, R.
    Roth, J.
    Stamp, M. F.
    Vartanian, S.
    Samm, U.
    NUCLEAR FUSION, 2013, 53 (08)
  • [37] Automatic disruption classification in JET with the ITER-like wall
    Cannas, B.
    de Vries, P. C.
    Fanni, A.
    Murari, A.
    Pau, A.
    Sias, G.
    PLASMA PHYSICS AND CONTROLLED FUSION, 2015, 57 (12)
  • [38] Global distribution of tritium in JET with the ITER-like wall
    Lee, S. E.
    Hatano, Y.
    Tokitani, M.
    Masuzaki, S.
    Oya, Y.
    Otsuka, T.
    Ashikawa, N.
    Torikai, Y.
    Asakura, N.
    Nakamura, H.
    Isobe, K.
    Kurotaki, H.
    Hamaguchi, D.
    Hayashi, T.
    Widdowson, A.
    Jachmich, S.
    Likonen, J.
    Rubel, M.
    NUCLEAR MATERIALS AND ENERGY, 2021, 26
  • [39] Initial operation of the JET ITER-like high-power prototype ICRF antenna
    Goulding, RH
    Baity, FW
    Durodié, F
    Fadnek, A
    Hosea, JC
    Jones, GH
    Loesser, GD
    Nelson, BE
    Rasmussen, DA
    Ryan, PM
    Sparks, DO
    Swain, DW
    Walton, R
    RADIO FREQUENCY POWER IN PLASMAS, 2003, 694 : 102 - 105
  • [40] Characterising dust in JET with the new ITER-like wall
    Flanagan, J. C.
    Sertoli, M.
    Bacharis, M.
    Matthews, G. F.
    de Vries, P. C.
    Widdowson, A.
    Coffey, I. H.
    Arnoux, G.
    Sieglin, B.
    Brezinsek, S.
    Coenen, J. W.
    Marsen, S.
    Craciunescu, T.
    Murari, A.
    Harting, D.
    Cackett, A.
    Hodille, E.
    PLASMA PHYSICS AND CONTROLLED FUSION, 2015, 57 (01)