首页> 外文期刊>Nuclear Instruments & Methods in Physics Research >Design, construction and test of small-diameter Muon Drift Tube chambers (sMDT) for the Phase-1 upgrade of the ATLAS muon spectrometer Patrick Rieck, on behalf of the ATLAS collaboration
【24h】

Design, construction and test of small-diameter Muon Drift Tube chambers (sMDT) for the Phase-1 upgrade of the ATLAS muon spectrometer Patrick Rieck, on behalf of the ATLAS collaboration

机译:小直径Muon漂移管腔(sMDT)的设计,建造和测试,代表ATLAS合作完成ATLAS介子光谱仪Patrick Rieck的第一阶段升级

获取原文
获取原文并翻译 | 示例
           

摘要

The ATLAS muon spectrometer consists of an efficient muon trigger system and precision muon tracking chambers providing high momentum resolution up to the TeV scale. Yet, in the regions between the inner barrel and endcap of the muon spectrometer the trigger selectivity is limited. Furthermore, at the future High-Luminosity LHC the efficiency of the resistive plate trigger chambers (RPCs) will decrease due to ageing effects. Therefore, additional RPCs will be installed at the ends of the inner barrel layer of the muon spectrometer in the current long shutdown for the Phase-1 upgrade of the LHC in 2019 and 2020. In order to free space for them, the current Muon Drift Tube (MDT) chambers will be replaced by small-diameter Muon Drift Tube (sMDT) chambers with 15 instead of 30 mm tube diameter, which will be integrated with thin-gap RPCs. Due to their higher background rate capability, the new sMDT chambers are also suitable precision muon tracking detectors at future hadron colliders. An overview of the design and production of the new ATLAS sMDT chambers, their performance and their mechanical integration with the RPCs is given. The construction of these new chambers also serves as a pilot project for the replacement of half of the barrel inner layer in the Phase-2 upgrade of the ATLAS detector.
机译:ATLAS介子光谱仪由高效的介子触发系统和精密的介子跟踪室组成,可提供高达TeV级的高动量分辨率。然而,在μ子光谱仪的内筒和端盖之间的区域中,触发选择性受到限制。此外,在未来的高亮度LHC中,由于老化效应,电阻板触发腔(RPC)的效率将降低。因此,在当前的长期关闭中,将在2019年和2020年的LHC的第一阶段升级中,在μon光谱仪的内桶层末端安装更多的RPC。为了释放它们的空间,当前的Muon Drift管(MDT)室将由直径为15而不是30 mm的小直径Muon Drift管(sMDT)室代替,该室将与薄间隙RPC集成在一起。由于其更高的本底速率能力,新的sMDT舱室也适用于未来强子对撞机的精密μ子跟踪探测器。概述了新型ATLAS sMDT腔室的设计和生产,其性能以及它们与RPC的机械集成。这些新腔室的建设还作为一个试点项目,用于在ATLAS探测器的第二阶段升级中更换枪管内层的一半。

著录项

相似文献

  • 外文文献
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号