拥挤地区无人驾驶飞机操作的地面和空中风险模块化建模

M. Ortlieb, Jan Konopka, Florian-Michael Adolf
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引用次数: 2

摘要

无人机系统(UAS)在欧洲的操作是可能的,在所谓的开放,具体和-在未来-认证类别。特定类别固有地与特定操作风险评估(SORA)相结合,作为可接受的合规手段(AMC)。我们利用现有的SORA方法作为AMC,提出了一种新的方法,用于拥挤地区的高风险作业,采用模块化数据驱动方法。由于涉及的数据量和风险类别,这是一个困难的问题,这需要融合可用的信息,以产生可行的解决方案。因此,我们提出了一种方法,该方法使用来自不同来源的异构地理空间数据集来派生操作风险的度量。飞机和任务特定参数以及监管要求被建模到每个风险层中。这一过程允许建立与内在任务参数相关的高度精确的多维风险模型。作为一种潜在的应用,我们评估了高维风险模型在现实场景中对风险最小路径的UAS路径规划过程的影响。我们使用常用的api来演示所提出的方法,以基于各种数据类导出3D风险图。测试结果表明,覆盖面积大于100平方公里的综合任务和车辆特定风险数据库可以在亚小时的时间框架内在消费者硬件上生成。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modular Modelling of Ground and Air Risks for Unmanned Aircraft Operations Over Congested Areas
Unmanned Aerial System (UAS) operations in Europe are possible under the so-called Open, Specific and – in the future – Certified Category. The Specific Category is inherently coupled with the Specific Operation Risk Assessment (SORA) as Acceptable Means of Compliance (AMC). We leverage the existing methodology of SORA as an AMC to propose a novel method for high risk operations over congested areas with a modular data-driven approach. Due to the amount of data and risk classes involved, this is a difficult problem, which requires the fusion of the available information in order to generate feasible solutions. Hence, we propose an approach, which employs heterogeneous geospatial data sets from dissimilar sources to derive metrics for operational risk. Aircraft and mission specific parameters, as well as regulatory requirements are modeled into each risk layer. This process allows for highly accurate and multi-dimensional models of risks associated with the intrinsic mission parameters. As a potential application, we evaluate the effect of high-dimensional risk models on the UAS path planning process of risk-minimal paths in realistic scenarios. We demonstrate the proposed method using commonly available APIs to derive 3D risk maps based on a variety of data classes. Test results show that comprehensive mission and vehicle specific risk data bases covering areas greater 100 km2 can be generated on consumer hardware within a sub-hour timeframe.
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