SpaceWire接口的容错实现

Sebastian Taube, V. Petrovic, M. Krstic
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引用次数: 2

摘要

由于宇宙辐射,在太空中运行的半导体芯片必须受到特别的保护,以防止单事件效应(SEE)。SpaceWire协议经常用于航天飞行器,连接关键任务设备。为了提高SpaceWire收发器在这些条件下的可靠性,提出了各种容错概念,以保护收发器免受单事件瞬变(set)和异常(seu)的影响。在这些概念中,模块冗余与信息冗余的应用分别与SpaceWire协议层的纠错方法相结合,以减少硬件开销。本文对不同电路级容错概念与SpaceWire标准提供的现有协议层容错相结合的方法进行了评估。结果表明,采用双模冗余是最有效的方法,而采用硬件容错技术只有在高故障密度的情况下才有优势。
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 implementation of a SpaceWire interface
Due to cosmic radiation, semiconductor chips operating in space have to be protected particularly against Single Event Effects (SEE). The SpaceWire protocol is frequently used in space vehicles, connecting mission critical devices. To increase the reliability of a SpaceWire transceiver under these conditions, various fault tolerance concepts are presented, which protect the transceiver against Single Event Transients (SETs) and Upsets (SEUs). Within these concepts, the application of modular redundancy with information redundancy respectively with the error correction method at the SpaceWire protocol layer is combined to reduce the hardware overhead. This paper provides the evaluation of methods combining different circuit-level fault tolerant concepts with existing protocol-layer fault tolerance provided by SpaceWire standard. It will been shown that the concept utilizing Double Modular Redundancy is the most efficient one, while the application of hardware fault tolerance provides advantages only for high fault densities.
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