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The CMS Fast Beams Condition Monitor Backend Electronics based on MicroTCA technology

机译:基于MicroTCA技术的CMS快速光束状态监测器后端电子设备

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摘要

The Fast Beams Condition Monitor (BCM1F), upgraded for LHC Run II, is one sub-system of the Beam Radiation Instrumentation and Luminosity Project of the CMS experiment. It is based on 24 single crystal CVD diamond sensors. Each sensor is metallised with two pads, being read out by a dedicated fast frontend chip produced in 130 nm CMOS technology. Signals for real time monitoring are processed by custom-made back-end electronics to measure separately rates corresponding to LHC collision products, machine induced background and residual activation exploiting different arrival times. The system is built in MicroTCA technology and uses high speed analog-to-digital converters. The data processing module designed for the FPGA allows a distinguishing of collision and machine induced background, both synchronous to the LHC clock, from the residual activation products. In operational modes of high rates, consecutive events, spaced in time by less than 12.5 ns, may partially overlap. Hence, novel signal processing techniques are deployed to resolve overlapping peaks. The high accuracy qualification of the signals is crucial to determine the luminosity and the machine induced background rates for the CMS experiment and the LHC. The architecture of the backend electronics and the signal processing techniques will be presented and its performance thus far using data taken in LHC Run II.
机译:快速光束状态监控器(BCM1F)已升级为LHC Run II,是CMS实验的光束辐射仪器和光度项目的一个子系统。它基于24个单晶CVD金刚石传感器。每个传感器都镀有两个焊盘,并由以130 nm CMOS技术生产的专用快速前端芯片读出。实时监控信号由定制的后端电子设备处理,以分别测量与LHC碰撞产物,机器引起的背景和利用不同到达时间的残余激活相对应的速率。该系统采用MicroTCA技术构建,并使用高速模数转换器。专为FPGA设计的数据处理模块可以将碰撞和机器诱发的背景(均与LHC时钟同步)与残余激活产物区分开。在高速率的操作模式下,时间间隔小于12.5 ns的连续事件可能会部分重叠。因此,采用新颖的信号处理技术来解决重叠峰。信号的高精度鉴定对于确定CMS实验和LHC的亮度和机器诱发的背景速率至关重要。到目前为止,将使用LHC Run II中获取的数据介绍后端电子设备的体系结构和信号处理技术及其性能。

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