Heat flux experiments on first wall mock-ups coated by plasma sprayed B4C
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Bolt, H
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JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPANJAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
Bolt, H
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Araki, M
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JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPANJAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
Araki, M
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Linke, J
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JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPANJAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
Linke, J
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Mallener, W
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JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPANJAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
Mallener, W
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Nakamura, K
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JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPANJAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
Nakamura, K
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Steinbrech, RW
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JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPANJAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
Steinbrech, RW
[1
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Suzuki, S
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JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPANJAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
Suzuki, S
[1
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[1] JAPAN ATOM ENERGY RES INST, DEPT FUS ENGN RES, TOKAI, IBARAKI 31101, JAPAN
The plasma compatibility of the first wall of fusion devices can be achieved either by using protective tiles of massive material like fibre reinforced carbon or by direct coating of the metallic wall. For ITER, the plasma spray technique provides the opportunity to coat large areas of the first wall with coating thicknesses of the order of 1 mm and may allow in-situ repair of the coating. Plasma sprayed boron carbide (B4C) is regarded as a promising candidate material because of its low atomic number and high melting point. In the present work, actively cooled stainless steel AISI316L bodies were coated with a copper interlayer and a 1.2 mm top layer of B4C. The homogeneously coated surface was 210 mm x 65 mm. The stainless steel bodies had two parallel channels for water cooling of the mock ups. Thermomechanical testing was performed in the JEBIS-facility (JAERI Electron Beam Irradiation System). Surface heat loads of 0.5-1 MW/m(2) caused local delamination and cracking of the coating.