无人机系统通信、导航和监视(CNS)技术的实现分析

D. Ponchak, F. Templin, Greg Sheffield, Pedro Taboso, R. Jain
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引用次数: 6

摘要

航空工业和政府机构面临着将大规模无人机系统(UAS)集成到全球受控和非受控空域的快速新兴需求。集成的关键组件包括确保无人机安全运行所需的通信、导航和监视(CNS)技术。在NASA NNA16BD84C项目下,我们对无人机在受控和非受控空域安全运行的CNS架构概念的研究引入了CNS架构,必须在实施准备方面进行分析。UAS的管制空域操作与全球空中交通管理(ATM)服务中载人航空的需求是一致的。非受控空域操作与NASA无人(空中)交通管理(UTM)操作概念是一致的。实施准备基于NASA技术准备水平(trl)的概念,范围从TRL1(观察和报告的基本原则)到TRL9(通过成功的任务操作验证的实际系统飞行)。在体系结构概念中,我们引入了许多新的CNS体系结构元素,它们需要与TRL级别相关联。在本文中,我们介绍了我们对通信网络、通信数据链、导航和监视的实现分析。在当前NASA计划的过程中,每个领域都处于积极的研究和开发之中,该计划已经研究了UAS CNS需求,受控空域的UAS CNS架构和非受控空域的UAS CNS架构。我们已经在主要的无人机相关会议(包括iCNS2017、IEEE Aerospace 2018和iCNS2018)上发表了我们的架构概念,并将继续寻求更多的发表机会。我们期待着继续我们的工作,以实现受控和非受控空域运行的全面集成测试场景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Implementation Analysis of Communications, Navigation, and Surveillance (CNS) Technologies for Unmanned Air Systems (UAS)
The aviation industry and government agencies face a rapidly-emerging need for integrating large-scale populations of Unmanned Air Systems (UAS) into the worldwide controlled and uncontrolled airspace. Critical components for integration include the Communications, Navigation, and Surveillance (CNS) technologies necessary for ensuring safe UAS operations. Under NASA program NNA16BD84C, our work on CNS architectural concepts for the safe operation of UAS in controlled and uncontrolled airspace has introduced CNS architectures which must be analyzed in terms of implementation readiness. Controlled airspace operations for UAS are consistent with the needs for manned aviation in the worldwide Air Traffic Management (ATM) service. Uncontrolled airspace operations are consistent with the NASA Unmanned (air) Traffic Management (UTM) concept of operations. Implementation readiness is based on the NASA concept of Technology Readiness Levels (TRLs) ranging from TRL1 (basic principles observed and reported) to TRL9 (actual system flight proven through successful mission operations). In the architecture concepts, we have introduced a number of new CNS architectural elements which need to be correlated with TRL levels. In this paper, we present our implementation analysis for communications networks, communications data links, navigation, and surveillance. Each area has been under active research and development during the course of the current NASA program which has produced studies on UAS CNS Requirements, UAS CNS Architecture for Controlled Airspace and UAS CNS Architecture for Uncontrolled Airspace. We have published our architecture concepts in major UAS-related conferences (including iCNS2017, IEEE Aerospace 2018, and iCNS2018) and will continue to seek additional publication opportunities. We look forward to continuing our work to realize a full integration testing scenario for both controlled and uncontrolled airspace operation.
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