在RISA FPGA平台上通过动态模块化冗余(DMR)提高容错性

M. Trefzer, A. Tyrrell
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引用次数: 5

摘要

随着各种关键应用(包括深空探测器、卫星、反应堆控制系统以及包括健康和环境监测在内的物联网应用)的需求不断增加,自主容错系统在设计可靠的计算系统方面重新引起了人们的兴趣。自主容错系统是基于能够自我监控和自我修复的硬件。在这种情况下,本文研究了在FPGA上使用细粒度的部分动态重构,以实现比TMR更低的永久开销,更高程度的容错,其用于长期系统维护的潜在用途以及快速检测故障的能力。本文所展示的案例研究主要集中在通过使用进化算法(EA)优化故障监测策略来加速故障检测。
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Improved fault-tolerance through dynamic modular redundancy (DMR) on the RISA FPGA platform
Autonomously fault-tolerant systems have received a renewed interest for the design of dependable computing systems with the increasing requirements of a variety of critical applications including deep space probes, satellites, reactor control systems, and Internet-of-Things applications including health and environment monitoring. Autonomous fault-tolerant systems are based on hardware capable of self-monitoring and self-repair. In this context, this paper investigates the use of fine-grained, partial dynamic reconfiguration on FPGA for achieving a higher degree of fault-tolerance with lower permanent overhead than TMR, its potential use for long term system maintenance and its capability of detecting faults quickly. The case study shown in this paper focuses mainly on accelerating fault-detection trough optimising a fault-monitoring strategy using an evolutionary algorithm (EA).
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On enhancing the reliability of internal configuration controllers in FPGAs Detection of Silent Data Corruption in fault-tolerant distributed systems on board spacecraft A novel Dynamic Partial Reconfiguration design for automatic white balance Method to self-repairing reconfiguration strategy selection of embryonic cellular array on reliability analysis A hierarchical fault tolerant system on the PAnDA device with low disruption
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