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A radiation tolerant readout link and control board for the Phase-II upgrade of the ATLAS Hadronic Tile Calorimeter

机译:耐辐射的读出链接和控制板,用于ATLAS强氢瓷砖热量计的II期升级

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We present performance and radiation test results for the updated prototype of a radiation tolerant read-out link and control board (Daughterboard) for the Phase-II upgrade of the ATLAS Hadronic Tile Calorimeter (TileCal) front-end electronics for high-luminosity LHC. In the upgraded system, photomultiplier signals are amplified, shaped and digitized by the front-end electronics and a Mainboard (MB), while the Daughterboard (DB) collects and transmits the digitized data off-detector over multigigabit optical links. The DB provides a bidirectional interface between the front-end and off-detector electronics, receiving configuration, control and LHC-synchronous timing over two 4.8 Gbps downlinks to a pair of CERN GBTx ASICs, and providing high-speed readout off-detector over two redundant 9.6 Gbps uplinks, each driven by one of two Xilinx Kintex Ultrascale FPGAs. The DB design is double redundant to minimise single-point failure modes, and the FPGA firmware uses strategies including TMR, FEC and CRC to minimize the effects of single-event upsets and damage from hadronic and minimum ionizing radiation. The DB is expected to receive approximately 0.2 krad of total ionizing and 2.44 × 1011 neutrons / cm2 of non-ionising radiation over a 10 year period, so the prototype board and components must pass TID, NIEL and SEE with large safety factors to be radiation qualified for high-luminosity LHC operations.
机译:我们展示了用于高光度LHC的ATLAS氢瓷砖热量计(TileCal)前端电子设备的II期升级的耐辐射的读出链接和控制板(Daughterboard)的更新原型的性能和辐射测试结果。在升级后的系统中,光电倍增器信号被前端电子设备和主板(MB)放大,整形和数字化,而子板(DB)则通过数千兆位的光学链路收集并发送数字化数据。该数据库在前端和检波器电子设备之间提供双向接口,通过两个4.8 Gbps下行链路接收一对CERN GBTx ASIC的配置,控制和LHC同步定时,并提供两个以上的高速读出检波器冗余9.6 Gbps上行链路,每个上行链路由两个Xilinx Kintex Ultrascale FPGA之一驱动。 DB设计是双重冗余的,以最大程度地减少单点故障模式,FPGA固件使用包括TMR,FEC和CRC在内的策略来最大程度地减少单事件翻转的影响以及强子性辐射和最小电离辐射的损害。 DB预计将获得约0.2 krad的总电离和2.44×10 11 中子/ cm 2 在十年内不会产生电离辐射,因此原型板和组件必须通过TID,NIEL和SEE,且必须具有较大的安全系数,才能通过辐射认证,可用于高亮度LHC操作。

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