OPS-SAT的飞行逻辑分析

Maximilian Henkel, A. Hörmer, David Evans, M. Wenger
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引用次数: 0

摘要

没有什么是完美的。即使是精心开发的硬件组件有时也会表现出意想不到的行为。在恶劣的环境中,这种情况更有可能发生,比如卫星所处的环境。然而,在卫星上,硬件分析仅限于由一组受限的集成传感器获得的数据。因此,只能跟踪预期的故障情况,或者只能进行间接监视。本文提出了一种适用于现场硬件分析的方法,以解决这一问题。我们的方法是在ESA的OPS-SAT卫星上执行的,在那里发现了这样一个无法解释的故障。幸运的是,OPS-SAT包含一个可重构的现场可编程门阵列(FPGA),允许实现逻辑分析仪功能。因此,FPGA结构中存在的任何信号都是可追踪的,包括所有外部连接的信号。本文介绍了该系统在OPS-SAT卫星上的实现、部署和成功执行情况。使用捕获的跟踪,我们对错误行为进行了深入的分析。我们的理解是,这是第一次在飞行的航天器上实施这种技术。我们希望鼓励现场采用,特别是空间FPGA重新配置,以推动未来的创新。
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In-Flight Logic Analysis on OPS-SAT
Nothing is perfect. Even carefully developed hardware components can sometimes exhibit unexpected behaviour. This is even more likely in harsh environments, like the one satellites are exposed to. However, on satellites hardware analysis is limited to the data obtained by a constrained set of integrated sensors. Therefore, only expected failure cases can be traced, or only indirect monitoring is possible. In this paper, we present an adaptable way to analyse hardware in the field, to solve this problem. Our approach was implemented in-flight on ESA's OPS-SAT satellite, where such an unexplainable fault was noticed. Fortunately, OPS-SAT contains a reconfigurable Field-Programmable Gate Array (FPGA) allowing a logic analyser functionality to be implemented. Thereby, any signal present in the FPGA fabric becomes traceable, including all externally connected ones. Here, we describe the implementation, its deployment and the successful execution on the OPS-SAT satellite. Using the captured traces, we performed an in-depth analysis of the erroneous behaviour. Our understanding is, that this is the first time such a technique has been implemented on a flying spacecraft. We hope to encourage in-field adoption, especially in-space FPGA reconfiguration, to drive future innovation.
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