Cherenkov counter for particle identification teat beam
崔象宗, Li Cai, 刘正全, 吴元明, 张良生, 周宝庆, 赵小健, 张少平, 刘士兴, 郑林生, X. Z. Cui, Jian Li, ZQ Liu, YM Wu, LS Zhang, BQ Zhou, XJ Zhao, SP Zhang, SX Liu, LS Zheng
Abstract
崔象宗, Li Cai, 刘正全, 吴元明, 张良生, 周宝庆, 赵小健, 张少平, 刘士兴, 郑林生, X. Z. Cui, Jian Li, ZQ Liu, YM Wu, LS Zhang, BQ Zhou, XJ Zhao, SP Zhang, SX Liu, LS Zheng
Abstract
The Cherenkov counter used for selecting electrons of the test beam has been studied in this article. The design, manufacture, assembly and testing of the Cherenkov counter are described. And the performance of this counter is measured. The CO2 gas is used as Cherenkov radiator, the XP2020Q photomultiplier is applied for recording signals of the Cherenkov light. The (99.0 +/- 0.5) % efficiency of the electron selection has been reached.
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The Cherenkov counter used for selecting electrons of the test beam has been studied in this article. The design, manufacture, assembly and testing of the Cherenkov counter are described. And the performance of this counter is measured. The CO2 gas is used as Cherenkov radiator, the XP2020Q photomultiplier is applied for recording signals of the Cherenkov light. The (99.0 +/- 0.5) % efficiency of the electron selection has been reached.
Key concepts: Cherenkov radiation, Cherenkov detector, Physics, Photomultiplier, Particle identification, Radiator (engine cooling), Optics, Beam (structure)