An Approach to Autonomous Contingency Management in Urban Air Mobility: The Communication Network Awareness Machine System

Vincent E. Houston
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引用次数: 1

Abstract

Next Generation Air Transportation System (NextGen) has begun the modernization of the nation's air transportation system (NAS), with goals to improve system safety, increase operation efficiency and capacity, provide enhanced predictability, resilience and robustness [1]. The overall objective of the Air Traffic Management-eXploration (ATM-X) project is to facilitate the goals of NextGen by conducting research to enable the growing demand of new, mission variant, air vehicles with safe access to the NAS. The implementation and utilization of new and burgeoning technologies that are both flexible, scalable, and systematically user-focused are requisite for ATM-X to achieve its intention of NAS safe entry [2]. Researchers from NASA Langley's Flight Deck Integration Team have developed a system architecture that would allow ATM-X to leverage the necessary capabilities of an Increasingly Autonomous System (IAS), machine-agent that will promote the safe access and operation of air vehicles within what has become the byproduct of NextGen modernization, a Net-Centric airspace architecture and an Urban Air Mobility (UAM) community. Conducting flight operations within this type of architecture constrains the human-agent's natural ability to data manage. When the massive volume of data, its types, and the acquisition speed at which the data is ingested is observed it becomes evident that the human-agent will be functioning at an operational disadvantage. Therefore, the development and integration of intelligent machine-agents into the flight deck are a necessary implementation to achieve ATM-X overall objective of safe access and operation in the NAS.
城市空中交通自主应急管理方法:通信网络感知机系统
下一代航空运输系统(NextGen)已经开始了国家航空运输系统(NAS)的现代化,目标是提高系统安全性,提高运行效率和容量,提供增强的可预测性,弹性和稳健性。空中交通管理-探索(ATM-X)项目的总体目标是通过开展研究来促进下一代的目标,以满足对能够安全进入NAS的新型任务型飞行器不断增长的需求。ATM-X要实现其NAS安全进入[2]的意图,必须实施和利用灵活、可扩展和系统地以用户为中心的新兴技术。美国宇航局兰利飞行甲板集成团队的研究人员开发了一种系统架构,使ATM-X能够利用日益自治系统(IAS)的必要功能,机器代理将促进飞行器的安全访问和运行,这已经成为下一代现代化的副产品,以网络为中心的空域架构和城市空中机动(UAM)社区。在这种类型的架构中进行飞行操作限制了人类代理的自然数据管理能力。当观察到大量的数据,其类型和数据摄取的获取速度时,很明显,人类代理将在操作上处于劣势。因此,在飞行甲板中开发和集成智能机器代理是实现ATM-X在NAS中安全访问和运行的总体目标的必要实现。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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