Performance evaluation of the approaches and algorithms using Hamburg Airport operations

Zhifan Zhu, Nikolai Okuniek, I. Gerdes, S. Schier, Hanbong Lee, Y. Jung
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引用次数: 7

Abstract

The German Aerospace Center (DLR) and the National Aeronautics and Space Administration (NASA) have been independently developing and testing their own concepts and tools for airport surface traffic management. Although these concepts and tools have been tested individually for European and US airports, they have never been compared or analyzed side-by-side. This paper presents the collaborative research devoted to the evaluation and analysis of two different surface management concepts. Hamburg Airport was used as a common test bed airport for the study. First, two independent simulations using the same traffic scenario were conducted: one by the DLR team using the Controller Assistance for Departure Optimization (CADEO) and the Taxi Routing for Aircraft: Creation and Controlling (TRACC) in a real-time simulation environment, and one by the NASA team based on the Spot and Runway Departure Advisor (SARDA) in a fast-time simulation environment. A set of common performance metrics was defined. The simulation results showed that both approaches produced operational benefits in efficiency, such as reducing taxi times, while maintaining runway throughput. Both approaches generated the gate pushback schedule to meet the runway schedule, such that the runway utilization was maximized. The conflict-free taxi guidance by TRACC helped avoid taxi conflicts and reduced taxiing stops, but the taxi benefit needed be assessed together with runway throughput to analyze the overall performance objective.
使用汉堡机场操作的方法和算法的性能评估
德国航空航天中心(DLR)和美国国家航空航天局(NASA)一直在独立开发和测试他们自己的机场地面交通管理概念和工具。尽管这些概念和工具已经分别在欧洲和美国的机场进行了测试,但它们从未被比较或分析过。本文提出了一项合作研究,致力于评估和分析两种不同的地表管理概念。以汉堡机场为研究的公共试验台机场。首先,使用相同的交通场景进行了两个独立的模拟:一个由DLR团队在实时模拟环境中使用控制器辅助离场优化(cado)和飞机滑行路线:创建和控制(TRACC),另一个由NASA团队在快速模拟环境中基于现场和跑道离场顾问(SARDA)。定义了一组常见的性能指标。仿真结果表明,两种方法都能在保持跑道吞吐量的同时,减少滑行时间,提高运行效率。两种方法均生成满足跑道进度的登机口推挤进度,使跑道利用率最大化。TRACC的无冲突滑行引导有助于避免滑行冲突和减少滑行停站,但滑行效益需要与跑道吞吐量一起进行评估,以分析总体性能目标。
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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