车载维修系统的诊断推理技术

L.A. Reibling, S.C. Bublin
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引用次数: 3

摘要

作者描述了史密斯工业航空航天和国防系统公司开发的机载维护系统(OMS),该系统包括对发动机和机械系统的飞行诊断和预测分析。该机载系统旨在增强数据收集和记录功能,为飞行员提供实时系统健康信息、机载系统和子系统诊断、系统性能预测,并协助地面维护人员诊断系统故障,并安排所需的维护行动。地面维修人员可以在飞机飞行时通过数据链访问机载诊断结果,以便在飞机着陆时做好准备,快速修复故障部件。除了实时系统健康监测之外,机载系统还允许地勤人员按需进行维护,而不是根据服务时间进行维护,从而根据每架飞机的个人需求进行定制维护。建立了一种称为诊断推理演示器(DRD)的混合推理系统的技术演示,该系统集成了许多不同的知识来源和推理方法,以演示对燃气涡轮发动机机械故障趋势和事件的诊断和预测分析。诊断推理技术以假设推理为核心。DRD由发动机模型和模拟器、故障场景构建器和混合诊断推理器组成。该演示器在彩色笔记本电脑工作站上实现。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Diagnostic reasoning technology for the on-board maintenance system
The authors describe On-board Maintenance System (OMS) developed by Smiths Industries Aerospace and Defense Systems, Inc. which includes inflight diagnostic and prognostic analysis of engines and mechanical systems. This on-board system is designed to enhance the data collection and recording function by providing the pilot with real-time system health information, on-board system and subsystem diagnosis, system performance prediction, and to assist ground maintenance personnel in diagnosing system malfunctions, and scheduling required maintenance actions. Ground maintenance crews have access to on-board diagnosis results while the aircraft is in flight via data link so they can be prepared when the aircraft lands to quickly repair failed units. In addition to the real time system health monitoring, the on-board system allows ground crews to perform maintenance on demand rather than performing maintenance based on time in service, thus tailoring the maintenance performed to the individual needs of each aircraft. A technology demonstration of the application of a hybrid reasoning system called the Diagnostic Reasoning Demonstrator (DRD) has been built which integrates a number of different knowledge sources and reasoning methods to demonstrate the diagnostic and prognostic analysis of mechanical failures trends and events in a gas turbine engine. The diagnostic reasoning technology is centered around hypothetical reasoning. The DRD consists of an engine model and simulator, a failure scenario builder, and the hybrid diagnostic reasoner. The demonstrator is implemented on a color laptop workstation.<>
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