On-the-Fly Self-Reconfiguring FPGAs for Single Event Upset Monitoring at Belle II

R. Giordano, A. Aloisio, S. Massarotti, G. Tortone, Y. Lai, S. Korpar, R. Pestotnik, L. Šantelj, A. Lozar, M. Shoji, S. Nishida
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Abstract

High Energy Physics experiments usually require radiation-tolerant electronics for on-detector operation. When possible, it is preferable to use commercial off-the-shelf components. For purely digital functions, such as data aggregation, processing and transfer, static RAM-based Field Programmable Gate Arrays (SRAM-based FPGAs) are increasingly being used on outer sub-detectors. While these devices offer great advantages in terms of flexibility and performance, they pose important issues related to single-event upsets (SEUs) in their configuration. These upsets need to be corrected, i.e. scrubbed, and their rate is valuable information for choosing the proper mitigation strategy. If possible, dedicated in situ measurements should be performed to this aim. In this work, we present a system for SEU monitoring in FPGAs, which we installed in proximity of the Belle II detector at the SuperKEKB electron-positron collider of the KEK laboratory (Tsukuba, JP). As part of the system, we also describe our design of a robust-yet-flexible configuration scrubber, portable over Xilinx Virtex-5 and 7- Series FPGA families. We discuss the measured FPGA configuration error rate and the device power consumption. We compare our results across the tested FPGA families. We compare our scrubber to the Xilinx Soft Error Mitigation controller in terms of reliability by means of proton beam tests conducted at INFN Laboratori Nazionali del Sud (Catania, Italy). In order to show the flexibility of our scrubber, we briefly describe its usage in the Belle II aerogel ring imaging Cherenkov counter.
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Belle II单事件干扰监测的动态自重构fpga
高能物理实验通常需要耐辐射的电子设备来进行探测器上的操作。在可能的情况下,最好使用商业现成的组件。对于纯数字功能,如数据聚合、处理和传输,基于静态ram的现场可编程门阵列(SRAM-based fpga)越来越多地用于外部子探测器。虽然这些设备在灵活性和性能方面具有很大的优势,但它们在配置中存在与单事件干扰(seu)相关的重要问题。这些干扰需要纠正,即清除,其速率是选择适当缓解策略的宝贵信息。如果可能,应为此目的进行专门的现场测量。在这项工作中,我们提出了一种在fpga中监测SEU的系统,我们将其安装在KEK实验室(筑波,日本)的SuperKEKB正电子对撞机的Belle II探测器附近。作为系统的一部分,我们还描述了我们设计的强大而灵活的配置洗涤器,可移植到Xilinx Virtex-5和7系列FPGA家族上。我们讨论了测量的FPGA配置错误率和器件功耗。我们比较了测试FPGA系列的结果。通过在意大利卡塔尼亚国家南方实验室(INFN laboratory Nazionali del Sud)进行的质子束测试,我们将我们的洗涤器与赛灵思软误差缓解控制器在可靠性方面进行了比较。为了展示我们的洗涤器的灵活性,我们简要介绍了它在Belle II气凝胶环成像切伦科夫计数器中的使用情况。
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