自主系统的技能故障模型

Gabriela Medina, Jérémie Guiochet, C. Lesire, A. Manecy
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引用次数: 4

摘要

自主系统现在被部署到许多应用程序中,以在开放环境中执行越来越复杂的任务。为了管理其控制软件架构的复杂性,当前的趋势是使用三层方法,包括决策层(能够制定决策),功能层(低级控制操作),以及它们之间的技能层。这一层专门用于将高级计划目标转换为低级原子动作,并发送给功能层。为了处理运行时可能发生的故障,检测机制和反应策略可以在这些层中实现,甚至可以在外部设备中实现。然而,没有通用的技术可以保证所有这些机制都是一致的。本文提出了一种专注于技能层的方法,并提出了一种通用的技能故障模型,用于设计和分析故障检测和反应机制。该方法已成功应用于实际无人机应用,并给出了所得到的故障分析模型的提取。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A skill fault model for autonomous systems
Autonomous systems are now deployed for many applications to perform more and more complex tasks in open environments. To manage complexity of their control software architecture, a current trend is to use a 3-layers approach, with a decisional layer (able to formulate decisions), a functional layer (low level control actions), and between them a skill layer. This layer is dedicated to convert high level plan objectives into low level atomic actions, sent to the functional layer. In order to deal with failures that may happen at runtime, detection mechanisms and reaction strategies may be implemented in these layers, or even in external devices. However, no generic technique is available to guarantee that all these mechanisms will be consistent. We present in this paper an approach that focus on the skill layer, with a proposal of a generic skill fault model used to design and analyze failure detection and reactions mechanisms. This approach has been successfully applied to a real drone application, and we present an extract of the resulting fault analysis models.
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