Superconducting TESLA cavities

Aune, B.; Bandelmann, R.; Bloess, D.; Bonin, Bernard; Bosotti, A.; Champion, M.; Crawford, Christopher; Deppe, G.; Dwersteg, B.; A. Edwards, D.; Edwards, H.; Ferrario, M.; Fouaidy, M.; Gall, P.D.; Gamp, A.; Gössel, A.; H. Graber, Joel; Dienstbach Hubert, Dalby; Hüning, M.; Juillard, Michel; Junquera, T.; Kaiser, H.; L. Kreps, Gary; Kuchnir, M.; Lange, Robert; Leenen, M.; Liepe, Matthias; Lilje, L.; Matheisen, A.; Möller, W.-D.; Mosnier, A.; Padamsee, H.; Pagani, C.; Pekeler, M.; Peters, H.-B.; Peters, O.; Proch, D.; Rehlich, K.; Reschke, D.; Safa, H.; Schilcher, T.; Schmüser, Peter; Sekutowicz, J.; Simrock, Stefan; Singer, W.; Tigner, M.; Trines, D.; Twarowski, K.; Weichert, G.; G. Weisend, J.; Wojtkiewicz, Jacek; Wolff, S.; Zapfe, K.

doi:10.1103/physrevstab.3.092001

Public

Superconducting TESLA cavities

Published in Physical Review Special Topics - Accelerators and Beams • Sep 22, 2000

Authors:

B. Aune

R. Bandelmann

D. Bloess

Abstract

The conceptional design of the proposed linear electron-positron collider TESLA is based on 9-cell 1.3 GHz superconducting niobium cavities with an accelerating gradient of ${E}_{\mathrm{acc}}\ensuremath{\ge}25\mathrm{MV}/\mathrm{m}$ at a quality factor ${Q}_{0}\ensuremath{\ge}5\ifmmode\times\else\t...

Subject

Linear particle accelerator

Cryostat

Niobium

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