Cryogenic technology for tracking detectors
- Granata, V.
- Da Viá, C.
- Watts, S.
- Borer, K.
- Janos, S.
- Pretzl, K.
- Dezillie, B.
- Li, Z.
- Casagrande, L.
- Collins, P.
- Grohmann, S.
- Heijne, E.
- Lourenço, C.
- Niinikoski, T. O.
- Palmieri, V. G.
- Sonderegger, P.
- Borchi, E.
- Bruzzi, M.
- Pirollo, S.
- Chapuy, S.
- Dimcovski, Z.
- Grigoriev, E.
- Bell, W.
- Devine, S. R H
- O'Shea, V.
- Ruggiero, G.
- Smith, K.
- Berglund, P.
- De Boer, W.
- Hauler, F.
- Heising, S.
- Jungermann, L.
- Abreu, M.
- Rato Mendes, P.
- Sousa, P.
- Cindro, V.
- Mikuz, M.
- Zavrtanik, M.
- Esposito, A.
- Konorov, I.
- Paul, S.
- Buontempo, S.
- D'Ambrosio, N.
- Pagano, S.
- Eremin, V.
- Verbitskaya, E.
Publication date
April 2001
DOIAbstract
A low-mass cryogenic cooling technique for silicon sensor modules has been developed in the framework of the RD39 Collaboration at CERN. A prototype low-mass beam tracker cryostat has been designed, constructed and tested for applications in fixed target experiments. We shall report here briefly the main features and results of the system. © 2001 Elsevier Science B.V
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