大型UAS流量管理(UTM)结构

D. Sacharny, T. Henderson, Michael Cline
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引用次数: 5

摘要

随着大规模无人机系统(UAS)用于城市任务(如交付)的出现,导致了UAS交通管理(UTM)领域的大量研究和开发。此时的一般方法是为操作区域定义网格网络,然后让UAS服务供应商(USS)成对地消除其航班的任何重叠网格元素的冲突。此外,这种分析是在通过空域的任意飞行路径上进行的,因此可能会造成大量的计算负担,以确保战略上的消除冲突(即,没有两个飞行比所需的最小距离更近)。然而,这种方法的最大缺点是对UTM操作的突发事件的影响。例如,如果一架无人机减速或偏离航线,那么战略冲突就不再得到保证,这可能会对大量航班产生灾难性的滚雪球效应。我们提出了一种基于车道的方法,它不仅允许一维的战略冲突消除方法,而且为对整个UTM系统影响最小的备用应急处理方法提供结构支持。本文提供了航道创建、航道间路径分配、飞行策略冲突消除和应急处理的方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Large-Scale UAS Traffic Management (UTM) Structure
The advent of large-scale Unmanned Aircraft Systems (UAS) exploitation for urban tasks, such as delivery, has led to a great deal of research and development in the UAS Traffic Management (UTM) domain. The general approach at this time is to define a grid network for the area of operation, and then have UAS Service Suppliers (USS) pairwise deconflict any overlapping grid elements for their flights. Moreover, this analysis is performed on arbitrary flight paths through the airspace, and thus may impose a substantial computational burden in order to ensure strategic deconfliction (that is, no two flights are ever closer than the minimum required separation). However, the biggest drawback to this approach is the impact of contingencies on UTM operations. For example, if one UAS slows down, or goes off course, then strategic deconfliction is no longer guaranteed, and this can have a disastrous snowballing effect on a large number of flights. We propose a lane-based approach which not only allows a one-dimensional strategic deconfliction method, but provides structural support for alternative contingency handling methods with minimal impact on the overall UTM system. Methods for lane creation, path assignment through lanes, flight strategic deconfliction, and contingency handling are provided here.
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