Issues in the design of fault tolerant vehicle management systems for next generation unstable air vehicles

T. Gaska
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Abstract

The author describes design issues in fault-tolerant vehicle management systems (VMS) for next-generation high-performance aircraft. Unstable aircraft require a highly reliable fault-tolerant computer to perform dynamic compensation of effector surface controls. Next-generation system requirements for system availability and performance will extend the role of flight criticality beyond the flight data sensors and actuation control functions. Additional control systems requiring a similar degree of fault tolerance include the primary and secondary electrical power systems, fuel management system, hydraulics control system, propulsion control system, and avionics cooling system. The incorporation of these additional control systems into the flight control system defines the vehicle management system of next-generation aircraft. In addition, the implementation of a VMS for the 1990s will incorporate state-of-the-art hardware technologies including fiber optics, high-speed local area networks, high-voltage application-specific integrated circuits, multiprocessing, smart sensors, liquid-cooled racks, and packaging for two-level maintenance. Software technology will include a multiprocessor ADA fault-tolerant executive, local area network distributed architecture synchronization and network management, and high coverage built-in-test to support two-level maintenance. Architectural and system technologies to be applied include channelized and self-monitored redundancy, integrated flight and propulsion control, centralized and distributed electric actuators, pooled processing centers, expert systems, and 270 V uninterruptible electrical systems. The goals and accomplishments of some VMS programs are summarized.<>
新一代不稳定飞行器容错管理系统设计中的若干问题
作者描述了下一代高性能飞机容错车辆管理系统(VMS)的设计问题。不稳定的飞机需要高度可靠的容错计算机来执行效应器表面控制的动态补偿。下一代系统对系统可用性和性能的要求将扩展飞行临界的作用,超越飞行数据传感器和驱动控制功能。其他需要类似容错程度的控制系统包括初级和次级电力系统、燃料管理系统、液压控制系统、推进控制系统和航空电子冷却系统。将这些额外的控制系统整合到飞行控制系统中定义了下一代飞机的车辆管理系统。此外,20世纪90年代实施的VMS将结合最先进的硬件技术,包括光纤、高速局域网、高压专用集成电路、多处理、智能传感器、液冷机架和两级维护包装。软件技术将包括多处理器ADA容错执行、局域网分布式架构同步和网络管理,以及高覆盖的内置测试,以支持两级维护。将应用的架构和系统技术包括通道化和自我监控冗余、集成飞行和推进控制、集中和分布式电动执行器、集中处理中心、专家系统和270v不间断电力系统。总结了一些VMS项目的目标和成果。
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