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首页> 外文期刊>Journal of instrumentation: an IOP and SISSA journal >Electronics for CMS Endcap Muon Level-1 Trigger System Phase-1 and HL LHC upgrades
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Electronics for CMS Endcap Muon Level-1 Trigger System Phase-1 and HL LHC upgrades

机译:CMS Endcap MUON LEVEL-1触发系统的电子设备阶段1和HL LHC升级

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To accommodate high-luminosity LHC operation at a 13 TeV collision energy, the CMS Endcap Muon Level-1 Trigger system had to be significantly modified. To provide robust track reconstruction, the trigger system must now import all available trigger primitives generated by the Cathode Strip Chambers and by certain other subsystems, such as Resistive Plate Chambers (RPC). In addition to massive input bandwidth, this also required significant increase in logic and memory resources. To satisfy these requirements, a new Sector Processor unit has been designed. It consists of three modules. The Core Logic module houses the large FPGA that contains the track-finding logic and multi-gigabit serial links for data exchange. The Optical module contains optical receivers and transmitters; it communicates with the Core Logic module via a custom backplane section. The Pt Lookup table (PTLUT) module contains 1GB of low-latency memory that is used to assign the final Pt to reconstructed muon tracks. The μTCA architecture (adopted by CMS) was used for this design. The talk presents the details of the hardware and firmware design of the production system based on Xilinx Virtex-7 FPGA family. The next round of LHC and CMS upgrades starts in 2019, followed by a major High-Luminosity (HL) LHC upgrade starting in 2024. In the course of these upgrades, new Gas Electron Multiplier (GEM) detectors and more RPC chambers will be added to the Endcap Muon system. In order to keep up with all these changes, a new Advanced Processor unit is being designed. This device will be based on Xilinx UltraScale+ FPGAs. It will be able to accommodate up to 100 serial links with bit rates of up to 25 Gb/s, and provide up to 2.5 times more logic resources than the device used currently. The amount of PTLUT memory will be significantly increased to provide more flexibility for the Pt assignment algorithm. The talk presents preliminary details of the hardware design program.
机译:为了适应13 TEV碰撞能量的高光度LHC操作,必须对CMS Endcap Muon Level-1触发系统进行显着修改。为了提供可靠的轨道重建,触发系统现在必须导入阴极条带和某些其他子系统(例如电阻板室(RPC))生成的所有可用触发器。除了大量输入带宽外,这还需要显着增加逻辑和内存资源。为了满足这些要求,已经设计了一个新的部门处理器单元。它由三个模块组成。核心逻辑模块包含大型FPGA,其中包含用于数据交换的轨迹发现逻辑和多gibiT串行链接。光学模块包含光接收器和发射器;它通过自定义背板部分与核心逻辑模块通信。 PT查找表(PTLUT)模块包含1GB的低延迟存储器,用于将最终的PT分配给重建的MUON轨道。该设计使用了μTCA架构(由CMS采用)。演讲介绍了基于Xilinx virtex-7 FPGA家族的生产系统硬件和固件设计的详细信息。下一轮LHC和CMS升级将于2019年开始,随后是2024年开始的主要高亮度(HL)LHC升级。在这些升级过程中,新的Gas Electron乘数(GEM)探测器和更多RPC Chamber将被添加到Endcap Muon系统。为了跟上所有这些更改,正在设计一个新的高级处理器单元。该设备将基于Xilinx Ultrascale+ FPGA。它将能够容纳多达100个串行链接,比率最高为25 GB/s,并且提供的逻辑资源最多是当前使用的设备的2.5倍。 PTLUT存储器的量将显着增加,以提供PT分配算法的更灵活性。演讲介绍了硬件设计程序的初步详细信息。

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