利用Intel TSX在安全关键系统中实现容错执行

Florian Haas, Sebastian Weis, Stefan Metzlaff, T. Ungerer
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引用次数: 5

摘要

安全关键系统需要不断增长的计算能力,这就要求高性能的嵌入式系统。虽然商用处理器以低廉的价格提供高计算性能,但它们不提供对容错执行的硬件支持。然而,纯基于软件的容错方法需要很高的设计复杂性和运行时开销。在本文中,我们提出了一种高效的基于软件/硬件的COTS ×86处理器冗余执行方案,该方案利用了英特尔Haswell微架构引入的事务同步扩展(TSX)。我们的方法扩展了静态二进制检测工具,以在功能粒度上插入容错事务和故障检测指令。TSX硬件支持用于错误控制和恢复。与非容错执行相比,所选SPEC2006基准测试的平均运行时开销仅为49%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Exploiting Intel TSX for fault-tolerant execution in safety-critical systems
Safety-critical systems demand increasing computational power, which requests high-performance embedded systems. While commercial-of-the-shelf (COTS) processors offer high computational performance for a low price, they do not provide hardware support for fault-tolerant execution. However, pure software-based fault-tolerance methods entail high design complexity and runtime overhead. In this paper, we present an efficient software/hardware-based redundant execution scheme for a COTS ×86 processor, which exploits the Transactional Synchronization Extensions (TSX) introduced with the Intel Haswell microarchitecture. Our approach extends a static binary instrumentation tool to insert fault-tolerant transactions and fault-detection instructions at function granularity. TSX hardware support is used for error containment and recovery. The average runtime overhead for selected SPEC2006 benchmarks was only 49% compared to a non-fault-tolerant execution.
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