容错基于组件的自动化系统的容错

M. Oriol, Thomas Gamer, Thijmen de Gooijer, M. Wahler, E. Ferranti
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引用次数: 11

摘要

为了保证高可用性,自动化系统必须具有容错性。为此,他们必须为系统的关键部分提供冗余解决方案。经典的容错模式,如备用或n模块冗余,可在发生故障时提供系统稳定性。容错性随后会降低,或者根据部署的副本的数量,在系统修复之前,容错性通常甚至不可用。我们引入了基于组件的框架、冗余模式和运行时管理器的组合,它能够提供容错功能,检测主机故障,并在运行时触发系统的重新配置。这种组合解决方案在发生故障时保持系统运行,并自动恢复容错能力。通过一个工业分布式自动化系统的案例研究验证了所提出的解决方案。验证表明,我们的解决方案如何快速恢复容错,而无需操作员干预或立即更换硬件,同时限制对其他应用程序的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fault-tolerant fault tolerance for component-based automation systems
To guarantee high availability, automation systems must be fault-tolerant. To this end, they must provide redundant solutions for the critical parts of the system. Classical fault tolerance patterns such as standby or N-modular redundancy provide system stability in the case of a fault. Fault tolerance is subsequently degraded or, depending on the number of deployed replicas, often even unavailable until the system has been repaired. We introduce a combination of a component-based framework, redundancy patterns, and a runtime manager, which is able to provide fault tolerance, to detect host failures, and to trigger a reconfiguration of the system at runtime. This combined solution maintains system operation in case a fault occurs and automatically restores fault tolerance. The proposed solution is validated using a case study of an industrial distributed automation system. The validation shows how our solution quickly restores fault tolerance without the need for operator intervention or immediate hardware replacement while limiting the impact on other applications.
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