Failures Mapping for Aircraft Electrical Actuation System Health Management

Chengwei Wang, I. Fan, Stephen King
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引用次数: 2

Abstract

This paper presents the different types of failure that may occur in flight control electrical actuation systems. Within an aircraft, actuation systems are essential to deliver physical actions. Large actuators operate the landing gears and small actuators adjust passenger seats. As developing, aircraft systems have become more electrical to reduce the weight and complexity of hydraulic circuits, which could improve fuel efficiency and lower NOx emissions. Electrical Actuation (EA) are one of those newly electrified systems. It can be categorized into two types, Electro-Hydraulic Actuation (EHA) and Electro-Mechanical Actuation (EMA) systems. Emerging electric and hydrogen fuel aircraft will rely on all-electric actuation. While electrical actuation seems simpler than hydraulic at the systems level, the subsystems and components are more varied and complex. The aim of the overall project is to develop a highly representative Digital Twin (DT) for predictive maintenance of electrical flight control systems. A comprehensive understanding of actuation system failure characteristics is fundamental for effective design and maintenance. This research focuses on the flight control systems including the ailerons, rudders, flaps, spoilers, and related systems. The study uses the Cranfield University Boeing 737 as the basis to elaborate the different types of actuators in the flight control system. The Aircraft Maintenance Manual (AMM) provides a baseline for current maintenance practices, effort, and costs. Equivalent EHA and EMA to replace the 737 systems are evaluated. In this paper, the components and their failure characteristics are elaborated in a matrix. The approach to model these characteristics in DT for aircraft flight control system health management is discussed. This paper contributes to the design, operation and support of aircraft systems.
飞机电气驱动系统健康管理的故障映射
本文介绍了飞行控制电气驱动系统中可能发生的不同类型的故障。在飞机中,驱动系统是传递物理动作的关键。大型执行机构操作起落架,小型执行机构调节乘客座椅。随着发展,飞机系统已经变得更加电气化,以减少液压回路的重量和复杂性,这可以提高燃油效率并降低氮氧化物排放。电动驱动系统(EA)是新兴的电气化系统之一。它可以分为两类,电液驱动(EHA)和机电驱动(EMA)系统。新兴的电动和氢燃料飞机将依靠全电动驱动。虽然在系统层面上,电气驱动似乎比液压驱动简单,但子系统和组件更加多样化和复杂。整个项目的目标是开发一个高度代表性的数字孪生(DT),用于电气飞行控制系统的预测性维护。全面了解驱动系统的故障特征是有效设计和维护的基础。本文主要研究了飞机的飞行控制系统,包括副翼、方向舵、襟翼、扰流板及相关系统。本研究以克兰菲尔德大学的波音737为基础,详细阐述了飞行控制系统中不同类型的致动器。飞机维修手册(AMM)为当前的维修实践、工作量和成本提供了一个基线。评估了替代737系统的等效EHA和EMA。本文用矩阵的形式阐述了构件及其失效特征。讨论了在飞机飞行控制系统健康管理的DT中对这些特性进行建模的方法。本文有助于飞机系统的设计、运行和支持。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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