Author
Kalish, M
Heitzenroeder, P
Brooks, A
Bryant, L
Chrzanowski, J
Daly, E
Feder, R
Feng, J
Messineo, M
Gomez, M
Hause, C
Bohm, T
Griffiths, I
Lipski, A
Mardenfeld, M
Nakahira, M
Neumeyer, C
Pillsbury, R
Sawan, M
Schaffer, M
Simmons, R
Titus, P
Zatz, I
Meighan, T
Journal title
Proceedings - Symposium on Fusion Engineering
DOI
10.1109/SOFE.2011.6052219
Last updated
2026-01-31T23:46:18.397+00:00
Abstract
ITER will incorporate In Vessel Coils (IVCs) as a method of stabilizing "Edge Localized Modes" (ELM) and providing "Vertical Stabilization" (VS). To meet the ELM and VS Coil requirements strong coupling with the plasma is required so that it is necessary for the coils to be installed in the vessel just behind the blanket shield modules. Due to this close proximity to the plasma the radiation and temperature environment is severe and conventional electrical insulation materials and processes cannot be used. The development of mineral insulated conductor technology has been required in the IVC design to deal with this high radiation and high temperature environment. While mineral insulated conductor technology is not new, building a large magnet with high current carrying capability and a conductor diameter larger than the mineral insulated conductor currently manufactured requires R&D and the extension of existing technologies. A 59mm Stainless Steel Jacketed Mineral Insulated Conductor (SSMIC) using MgO is being developed for this application. The IVC ELM and VS coils design includes both the development of the fabrication techniques for the SSMIC and the design and analysis of the ELM and VS Coil assemblies. © 2011 IEEE.
Symplectic ID
206427
Favourite
Off
Publication type
Journal Article
Publication date
01 Jan 2011
Please contact us with feedback and comments about this page.