故障感知嵌入式系统的整体软硬件方法

F. Kempf, Christoph Kühbacher, C. Mellwig, S. Altmeyer, T. Ungerer, J. Becker
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引用次数: 0

摘要

故障检测和容错已经是许多嵌入式系统的重要组成部分,并且在未来将变得更加重要。原因是在安全关键型环境中使用的软件越来越复杂,以及在同一硬件上执行具有不同临界性的软件组件的趋势。提出了一种灵活、自适应的故障处理方法。我们的方法结合了自适应硬件架构和灵活的运行时环境来检测和处理故障。在本文中,我们提出了一个基于tile的多核架构的结构,该架构具有运行时自适应的锁步核,并利用该硬件平台设计了一个灵活的数据流软件框架。我们证明了自适应同步概念的硬件开销和运行时环境的硬件需求很小,因此可以在嵌入式系统中使用。此外,我们通过硬件故障注入机制验证了硬件和软件的故障检测和纠正能力。此外,我们的运行时评估显示了不同冗余概念的有希望的结果。为此,我们比较了纯软件冗余解决方案和纯硬件冗余解决方案的执行时间,以及它们与不同基准测试应用程序的非冗余基线的组合。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A holistic hardware-software approach for fault-aware embedded systems
Fault detection and fault tolerance are a already crucial part of many embedded systems and will become even more important in the future. Reasons are the increasing complexity of software used in safety-critical environments and the trend to execute software components with varying criticality on the same hardware. We propose a novel approach for a flexible and adaptive fault handling. Our approach combines an adaptive hardware architecture with a flexible runtime environment to detect and handle faults. In this paper, we present the structure of a tile-based many-core architecture with runtime-adaptive lockstep cores and the design of a flexible dataflow software framework utilizing this hardware platform. We demonstrate that the hardware overhead for our adaptive lockstep concept and the hardware requirements of our runtime environment are minor and thus allow the use in embedded systems. Furthermore, we verified the fault detection and correction capabilities of both the hardware and software via a hardware fault injection mechanism. In addition, our runtime evaluation shows promising results for different redundancy concepts. For this purpose, we compare the execution time of software-only and hardware-only redundancy solutions as well as combinations of both with a non-redundant baseline for different benchmark applications.
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