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Implementation in a Sector of the CMS Drift Tube Chambers of a Muon Tracking Algorithm for Level-1 Trigger during HL-LHC

机译:在HL-LHC期间,在LY-1触发器的CMS漂移管腔的CMS漂移管腔扇区的实现

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To tolerate HL-LHC (High Luminosity Large Hadron Collider) data taking conditions the on detector electronics of the CMS (Compact Muon Solenoid) DT (Drift Tubes) chambers needs to be replaced during Long Shutdown 3 (LS3). A new system has been designed to comply with the increased occupancy in the chambers and acquisition rate in CMS, extracting maximal performance from the existing chambers, which will remain in place with similar performance. The new architecture ships all the time-digitized chamber hits to the backend where we expect to achieve resolutions comparable to the ones that the CPU-based High Level Trigger can obtain nowadays and allowing combining information across chambers. In this way, the new system will provide improved performance with respect to present system, and in particular it will be more resilient to potential aging degradation. The first prototypes of the HL-LHC electronics for the CMS On detector Board for the Drift Tube chambers (OBDT) have been installed in one sector of DT chambers on the CMS detector and integrated in the central data acquisition and trigger system during LS2. An algorithm for the trigger primitive generation that runs on backend boards used for the DT Phase 1 upgrade (TM7) has been developed and implemented in firmware. They have operated together with the first backend prototypes for timing distribution and slow control. After a months-long data-taking campaign of cosmic rays in the underground cavern, the full chain has been commissioned, showing very good performance as expected from the Phase-2 design. We plan to run this Phase-2 parallel system during collisions in Run 3, which will allow to test final pre-production prototypes under realistic conditions (radiation, magnetic field) and further refine trigger algorithms.
机译:为了耐受HL-LHC(高亮度大强子撞机)数据采用条件,在长时间关闭3(LS3)期间,需要更换CMS(小型μ子螺线管)DT(漂移管)DT(漂移管)腔室的探测电子器件。新系统旨在符合CMS中的腔室和采集率的增加,从现有的腔室提取最大性能,这将保持类似的性能。新的体系结构遍布所有时间数字化的腔室,我们预期的后端可以实现与基于CPU的高级触发器相当的分辨率现在现在可以获得并且允许在腔室中组合信息。以这种方式,新系统将对当前系统提供改进的性能,特别是它将更加适应潜在的老化劣化。用于漂移管室(OBDT)的检测器电路板上的CMS的HL-LHC电子器件的第一个原型已安装在CMS检测器上的一个DT室扇区中,并在LS2期间集成在中央数据采集和触发系统中。用于DT相1升级(TM7)的后端板上运行的触发原始生成算法已经在固件中开发和实现。它们与第一个后端原型一起运行,以进行定时分布和慢速控制。经过一个月长的数据在地下洞穴中的宇宙射线运动之后,全连锁已经委托,展示了阶段-2设计中预期的非常好的性能。我们计划在运行3的碰撞过程中运行此阶段2并行系统,这将允许在现实条件下测试最终的预生产原型(辐射,磁场)和进一步的细化触发算法。

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