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Health Management Design Considerations for an All Electric Aircraft

机译:全电动飞机的健康管理设计注意事项

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This paper explains the On-board IVHM system for a State-Of-the-Art “All electric aircraft” and explores implementing practices for analysis based design, illustrations and development of IVHM capabilities. On implementing the system as an on board system will carry out fault detection and isolation, recommend maintenance action, provides prognostic capabilities to highest possible problems before these became critical. The vehicle Condition Based Maintenance (CBM) and adaptive control algorithm development based on an open architecture system which allow “Plug in and Plug off” various systems in a more efficient and flexible way. The scope of the IVHM design included consideration of data collection and communication from the continuous monitoring of aircraft systems, observation of current system states, and processing of this data to support proper maintenance and repair actions. Legacy commercial platforms and HM applications for various subsystems of these aircraft were identified. The list of possible applications was down-selected to a reduced number that offer the highest value using a QFD matrix based on the cost benefit analysis. Requirements, designs and system architectures were developed for these applications. The application areas considered included engine, tires and brakes, pneumatics and air conditioning, generator, and structures. IVHM design program included identification of application sensors, functions and interfaces; IVHM system architecture, descriptions of certification requirements and approaches; the results of a cost/benefit analyses and recommended standards and technology gaps. The work concluded with observations on nature of HM, the technologies, and the approaches and challenges to its integration into the current avionics, support system and business infrastructure. The IVHM design for All Electric Hybrid Wing Body (HWB) Aircraft has a challenging task of addressing and resolving the shortfalls in the legacy IVHM framework. The challenges like sensor battery maintenance, handling big data from SHM, On-Ground Data transfer by light, Extraction of required features at sensor nodes/RDCUs, ECAM/EICAS Interfaces, issues of certification of wireless SHM network has been addressed in this paper. Automatic Deployable Flight Data recorders are used in the design of HWB aircraft in which critical flight parameters are recorded. The component selection of IVHM system including software and hardware have been based on the COTS technology. The design emphasis on high levels of reliability and maintainability. The above systems are employed using IMA and integrated on AFDX data bus. The design activities has to pass through design reviews on systematic basis and the overall approach has been to make system highly lighter, effective “All weather” compatible and modular. It is concluded from the study of advancement in IVHM capabilities and new service offerings that IVHM technology is emerging as well as challenging. With the inclusion of adaptive control, vehicle condition based maintenance and pilot fatigue monitoring, IVHM evolved as a more proactively involved on-board system.
机译:本文介绍了用于最先进的“全电动飞机”的机载IVHM系统,并探讨了基于分析的设计,插图和IVHM功能开发的实施方法。在将系统作为板载系统实施时,将执行故障检测和隔离,建议维护措施,并在可能出现的严重问题之前为最大可能的问题提供预测功能。基于开放式体系结构系统的基于车辆状况的维护(CBM)和自适应控制算法开发,允许以更加有效和灵活的方式“插入和拔出”各种系统。 IVHM设计的范围包括考虑从飞机系统的连续监视,当前系统状态的观察以及对这些数据的处理以支持适当的维护和维修行动来进行数据收集和通信。确定了这些飞机各种子系统的旧式商业平台和HM应用程序。基于成本效益分析,使用QFD矩阵将可能的应用程序列表选择为减少的数量,以提供最高的价值。针对这些应用开发了需求,设计和系统架构。考虑的应用领域包括发动机,轮胎和制动器,气动和空调,发电机和结构。 IVHM设计程序包括识别应用传感器,功能和接口; IVHM系统架构,认证要求和方法的描述;成本/效益分析的结果以及建议的标准和技术差距。这项工作以对HM的性质,技术以及将其集成到当前航空电子设备,支持系统和业务基础架构中的方法和挑战进行了观察。全电动混合翼飞机(HWB)飞机的IVHM设计具有解决和解决传统IVHM框架中的不足的艰巨任务。本文已解决了诸如传感器电池维护,处理来自SHM的大数据,通过光进行地面数据传输,提取传感器节点/ RDCU上所需功能,ECAM / EICAS接口,无线SHM网络认证问题等挑战。自动可部署飞行数据记录器用于HWB飞机的设计中,其中记录了关键的飞行参数。 IVHM系统的组件选择(包括软件和硬件)均基于COTS技术。设计强调高水平的可靠性和可维护性。上述系统是通过IMA使用的,并集成在AFDX数据总线上。设计活动必须经过系统的设计审查,整体方法是使系统更轻便,有效的“全天候”兼容和模块化。通过对IVHM功能和新服务产品的发展的研究得出结论,IVHM技术正在出现并且具有挑战性。通过包含自适应控制,基于车辆状态的维护和飞行员疲劳监测,IVHM逐渐发展成为一种主动参与的车载系统。

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