DocumentCode
1765755
Title
From Series Production of Gyrotrons for W7-X Toward EU-1 MW Gyrotrons for ITER
Author
Jelonnek, John ; Albajar, Ferran ; Alberti, Stefano ; Avramidis, Konstantinos ; Benin, Patrick ; Bonicelli, Tullio ; Cismondi, Fabio ; Erckmann, Volker ; Gantenbein, Gerd ; Hesch, Klaus ; Hogge, Jean-Philippe ; Illy, Stefan ; Ioannidis, Zisis C. ; Jianbo
Author_Institution
Assoc. EURATOMKIT, Karlsruhe Inst. of Technol. (KIT), Karlsruhe, Germany
Volume
42
Issue
5
fYear
2014
fDate
41760
Firstpage
1135
Lastpage
1144
Abstract
Europe is devoting significant joint efforts to develop and to manufacture MW-level gyrotrons for electron cyclotron heating and current drive of future plasma experiments. The two most important ones are the stellarator Wendelstein W7-X at Greifswald and the Tokamak ITER at Cadarache. While the series production of the 140 GHz, 1 MW, CW gyrotrons for the 10-MW electron cyclotron resonance heating system of stellarator W7-X is proceeding, the European GYrotron Consortium is presently developing the EU-1 MW, 170 GHz, CW gyrotron for ITER. The initial design had already been initiated in 2007, as a risk mitigation measure during the development of the advanced ITER EU-2-MW coaxial-cavity gyrotron. The target of the ITER EU-1-MW conventional-cavity design is to benefit as much as possible from the experiences made during the development and series production of the W7-X gyrotron and of the experiences gained from the earlier EU-2-MW coaxial-cavity gyrotron design. Hence, the similarity of the construction will be made visible in this paper. During 2012, the scientific design of the ITER EU-1-MW gyrotron components has been finalized. In collaboration with the industrial partner Thales electron devices, Vélizy, France, the industrial design of the technological parts of the gyrotron is being completed. A short-pulse prototype is under development to support the design of the CW prototype tube. The technological path toward the EU ITER-1 MW gyrotron and the final design will be presented.
Keywords
Tokamak devices; gyrotrons; plasma radiofrequency heating; plasma toroidal confinement; stellarators; CW gyrotron; CW prototype tube; Cadarache; EU ITER gyrotron; EU-gyrotrons; European GYrotron Consortium; Greifswald; ITER gyrotron components; MW-level gyrotrons; Thales electron devices; Tokamak ITER; W7-X gyrotron; advanced ITER coaxial-cavity gyrotron; current drive; electron cyclotron heating; electron cyclotron resonance heating system; frequency 140 GHz; frequency 170 GHz; plasma experiments; power 1 MW; power 10 MW; short-pulse prototype; stellarator Wendelstein W7-X; Cavity resonators; Europe; Gyrotrons; Power generation; Prototypes; Radio frequency; Structural beams; Gyrotrons; microwave generation; plasma heating; stellarators; tokamaks; tokamaks.;
fLanguage
English
Journal_Title
Plasma Science, IEEE Transactions on
Publisher
ieee
ISSN
0093-3813
Type
jour
DOI
10.1109/TPS.2014.2301839
Filename
6740075
Link To Document