The silicon drift vertex detector for the STAR experiment at RHIC

Pandey, S. U.; Bellwied, R.; Beuttenmulller, R.; Caines, H.; Chen, W.; DiMassimo, D.; Dyke, H.; Elliot, David H.; Eremin, V.; Grau, M.; Hoffmann, G. W.; Humanic, T. J.; Ilyashenko, I.; Kotov, I.V.; Kraner, H.W.; Kuczewski, P.; Leonhardt, B.; Li, Z.; Liaw, Chong-Jer; LoCurto, G.; Middelkamp, P.; Minor, R.; Munhoz, Marcelo de Azevedo e Souza; Ott, G.; Pruneau, C.; Rykov, V. L.; Schambach, J.; Sedlmeir, J.; Soja, B.; Sugarbaker, E.; Takahashi, J.; Wilson, Kenneth E.; Wilson, Robert E.

doi:10.1016/s0168-9002(01)01898-8

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Tracking in Particle Detectors

Acevski

Meyer

Röhrich

2009

Digital Encyclopedia of Applied Physics

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Tracking detectors play a major role in nuclear and particle physics. They provide a full image of particle trajectories in various medias. There are gaseous ionization detectors (e.g. wire chambers, drift chambers, micropattern gaseous detectors) and solid‐state detectors (e.g. silicon pixel, strip, and drift detectors). Normally, a combination of detectors must be used in tracking systems, for example, large‐volume time projection chambers and silicon trackers.

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