通用航空地面避碰系统的恢复自动驾驶仪分析

Patrick D. Maley, Alan M. Hubbard, Jude M. Urban, L. Hook
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引用次数: 2

摘要

通用航空是一种以小型私人飞机为代表的航空旅行方式,美国每年每20起死亡事故中就有19起是由通用航空造成的。然而,最近的技术解决办法正在出现,这可能会大大降低通用航空的死亡人数。这些解决方案中最有效的可能是地面防撞系统(GCAS)。GCAS在大量情况下避免了地面碰撞:飞行员错误,迷失方向和暂时丧失能力。然而,通用航空领域还不存在GCAS,尽管它的实施将使该领域广泛受益。针对这一现实,通用航空的GCAS开发已经开始。本文介绍了GCAS控制器在模拟Cessna 172飞机上的设计与验证。GCAS控制器为飞机提供自动避免雨后灾害的能力,是GCAS设计初始阶段的重要步骤。对控制器的横向轴和纵向轴的设计进行了考虑,并对控制器的整体结构进行了讨论。设计和描述了控制器模式和限制器,以确保控制器的安全运行,并考虑了瞬态开关效应。对控制器的响应进行了分析,并对模式和限位器的运行进行了验证。最后,将GCAS控制器生成的轨迹与GCAS系统预测的轨迹进行了比较。通过这些章节,本文对通用航空GCAS设计的初始阶段以及通用航空安全保障的开始进行了重要的考虑。
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Recovery Autopilot Analysis for a General Aviation Ground Collision Avoidance System
General aviation, the mode of air travel typified by small personal aircraft, accounts for roughly 19 of every 20 fatalities every year in the US. However, recent technological solutions are becoming available which may bring the total number of fatalities in general aviation down considerably. Potentially the most effective of these solutions is the Ground Collision Avoidance System or GCAS. GCAS avoids ground collision in a large number of cases: pilot error, disorientation, and temporary incapacitation. However, GCAS does not yet exist for general aviation, despite it being a field that would widely benefit from it's implementation. In response to this reality, GCAS development for general aviation has begun. This paper describes the design and verification of a GCAS controller on a simulated Cessna 172 aircraft. The GCAS controller provides the ability for the aircraft to automatically avoid ter-rain and is an important step in the initial phases of GCAS design. Considerations for the design of the controller's lateral and longitudinal axes are provided along with discussions on the overall controller structure. Controller modes and limiters have been designed and described to ensure safe operation of the controller, along with considerations for transient switching effects. Analysis of controller response along with verification of mode and limiter operation are provided. Finally, a comparison between the trajectory generated by the GCAS controller and one predicted by the GCAS system are included. With these sections, this paper provides important considerations on the initial stages of GCAS design for general aviation, and the beginning of safety assurance for GA.
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