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Mitigating functional complexity failures: Designing the operator inside the vehicle OODA-Loop

机译:减轻功能复杂性故障:在车辆OODA-Loop中设计操作员

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A class of aircraft accidents and incidents, known as Controlled Flight into Stall (CFIS), are characterized by a structurally, mechanically, electronically sound aircraft that is commanded by the automation to fly into the onset of an aerodynamic stall. These accidents are not the results of failed components; instead, they occur as a result of the complexity of the behavior and architecture of the automation that under rare circumstances results in an inappropriate command. This type of “failure,” is known as a Functional Complexity Failure (FCF). One of the most pernicious characteristics of FCFs is that they are difficult for operators to detect and intervene (i.e. they “start a fire and simultaneously turn off the fire alarm”). Researchers studying the CFIS accidents have proposed specific point-fixes to the automation to assist in preventing a specific FCF or by alerting the flight crew in these scenarios (e.g. energy-situation awareness, low speed alerting, etc). Without a holistic view for combating FCF's, these solutions are simply fighting battles in the last war. This paper describes a holistic approach to analyzing the manner in which FCFs occur and how to mitigate them. The novel approach described in this paper is to conduct a thought experiment in which the flight crew and automation are treated as adversaries in an Observe-Orient-Decide-Act (OODA) Loop. This analysis shows how in an FCF, the automation deploys techniques (e.g. creating complacency, uncertainty and disorder, hidden intentions, deception, and distraction) to get “inside” the flight crew OODA-loop. A holistic mitigation approach is described to design the automation to ensure that the operator is always inside the vehicle's OODA loop.
机译:一类飞机失事和事故,称为失速受控飞行(CFIS),其特征是结构,机械,电子声音飞机受自动装置的控制而飞入空气动力学失速的起点。这些事故不是组件故障的结果;相反,它们的出现是由于自动化行为和体系结构的复杂性所致,在极少数情况下会导致不适当的命令。这种类型的“故障”称为功能复杂性故障(FCF)。 FCF的最有害特性之一是,操作员很难对其进行检测和干预(即,“起火并同时关闭火警”)。研究CFIS事故的研究人员已经为自动化系统提出了具体的解决方案,以帮助防止特定的FCF或在这些情况下向机组人员发出警报(例如,能源状况感知,低速警报等)。这些解决方案没有针对FCF的整体看法,只能在上一场战争中与战斗作战。本文介绍了一种整体方法来分析FCF的发生方式以及如何缓解它们。本文中描述的新颖方法是进行思想实验,其中将飞行机组人员和自动化作为“观察-东方-决定-行动”(OODA)循环的对手。该分析显示了自动化如何在FCF中部署技术(例如,产生自满,不确定性和混乱,隐藏的意图,欺骗和分散注意力)以使飞行机组OODA回路“内部”。描述了一种整体缓解方法来设计自动化系统,以确保操作员始终在车辆的OODA回路内。

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