轻型通用航空飞机的自动飞行包线保护

John M. Wilson, M. Peters
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引用次数: 6

摘要

在美国通用航空每年发生的致命事故中,飞机失控事故约占38%。失去控制的事故包括vfr - inimc导致飞机失向和失去控制、机场交通模式中的低速失速旋转事故和低水平机动中的高速加速失速事故。这些事故中的大多数可以通过全日制飞行包线保护来预防,其功能类似于较新的军用和民用运输机上的电传控制系统。然而,电传系统在大多数通用飞机上实施起来可能会非常昂贵;而且对于改造应用来说是不切实际的。在美国联邦航空局的赞助下,我们正在开发一种新的GA包络保护方法,保留现有的电缆控制系统,同时提供全职飞行员在环稳定性增强和飞行包络保护。这种被称为力梯度控制的方法,是通过利用自动驾驶伺服系统设计中的新概念而成为可能的。在这项开发工作中,我们正在使用高保真度地面模拟器验证反馈控制算法,为使用具有代表性的轻型飞机进行飞行演示做准备。这种防止失控事故的方法在通用航空轻型飞机机队的改装和前装应用中都是经济可行的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Automatic flight envelope protection for light general aviation aircraft
Aircraft loss-of-control accidents account for about 38% of the fatal accidents in U.S. General Aviation operations each year. Loss-of-control accidents include VFR-into-IMC with subsequent disorientation and loss of aircraft control, low-speed stall-spin accidents in the airport traffic pattern, and high-speed accelerated stall accidents during low-level maneuvering. The majority of these accidents could be prevented by full-time flight envelope protection having functionality similar to that available in fly-by-wire systems on newer military and civil transport aircraft. However, fly-by-wire systems would likely be prohibitively expensive to implement in most GA aircraft; and would be impractical for retrofit applications. Under FAA sponsorship, we are developing a new approach to GA Envelope Protection that preserves the existing cable control system, while providing full-time pilot-in-the-loop stability augmentation and flight-envelope protection. This approach, called Force Gradient Control, is made possible by leveraging a new concept in the design of autopilot servos. Under this development effort, we are working to validate feedback control algorithms using a high-fidelity ground-based simulator, in preparation for flight demonstrations using a representative light aircraft. This approach to preventing loss-of-control accidents should be economically viable for both retrofit and forward-fit applications within the General Aviation light-aircraft fleet.
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