Nextgen operations in a simulated NY area airspace

N. Smith, B. Parke, Paul U. Lee, J. Homola, C. Brasil, Nathan Buckley, Christopher Cabrall, Eric Chevalley, Cindy Lin, S. Morey, Faisal Omar, D. Rein-Weston, Hyo-sang Yoo
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引用次数: 5

Abstract

A human-in-the-loop simulation conducted in the Airspace Operations Laboratory (AOL) at NASA Ames Research Center explored the feasibility of a Next Generation Air Transportation System (NextGen) solution to address airspace and airport capacity limitations in and around the New York metropolitan area. A week-long study explored the feasibility of a new Optimal Profile Descent (OPD) arrival into the airspace as well as a novel application of a Terminal Area Precision Scheduling and Spacing (TAPSS) enhancement to the Traffic Management Advisor (TMA) arrival scheduling tool to coordinate high volume arrival traffic to intersecting runways. In the simulation, four en route sector controllers and four terminal radar approach control (TRACON) controllers managed traffic inbound to Newark International Airport's primary runway, 22L, and its intersecting overflow runway, 11. TAPSS was used to generate independent arrival schedules for each runway and a traffic management coordinator participant adjusted the arrival schedule for each runway 11 aircraft to follow one of the 22L aircraft. TAPSS also provided controller-managed spacing tools (slot markers with speed advisories and timelines) to assist the TRACON controllers in managing the arrivals that were descending on OPDs. Results showed that the tools significantly decreased the occurrence of runway violations (potential go-arounds) when compared with a Baseline condition with no tools. Further, the combined use of the tools with the new OPDs produced a peak arrival rate of over 65 aircraft per hour using instrument flight rules (IFR), exceeding the current maximum arrival rate at Newark Liberty International Airport (EWR) of 52 per hour under visual flight rules (VFR). Although the participants rated the workload as relatively low and acceptable both with and without the tools, they rated the tools as reducing their workload further. Safety and coordination were rated by most participants as acceptable in both conditions, although the TRACON Runway Coordinator (TRC) rated neither as acceptable in the Baseline condition. Regarding the role of the TRC, the two TRACON controllers handling the 11 arrivals indicated that the TRC was very much needed in the Baseline condition without tools, but not needed in the condition with tools. This indicates that the tools were providing much of the sequencing and spacing information that the TRC had supplied in the Baseline condition.
下一代在模拟纽约空域的行动
美国宇航局艾姆斯研究中心的空域操作实验室(AOL)进行了一项人在环模拟,探索了下一代航空运输系统(NextGen)解决方案的可行性,以解决纽约大都市区及其周边空域和机场容量的限制。一项为期一周的研究探索了一种新的最佳轮廓下降(OPD)到达空域的可行性,以及一种新的应用,即终端区域精确调度和间隔(TAPSS)增强交通管理顾问(TMA)到达调度工具,以协调大量到达交叉跑道的交通。在模拟中,四个航路扇区管制员和四个终端雷达进近管制(TRACON)管制员管理纽瓦克国际机场主跑道22L及其交叉溢流跑道11的入境交通。TAPSS用于生成每条跑道的独立到达时间表,交通管理协调器参与者调整每条跑道11架飞机的到达时间表,以跟随22L飞机中的一架。TAPSS还提供了管制员管理的间隔工具(带有速度通知和时间表的槽位标记),以帮助TRACON管制员管理降落在opd上的到达者。结果表明,与没有工具的基线条件相比,工具显著减少了跑道违规(潜在复飞)的发生。此外,将这些工具与新的opd结合使用,使用仪表飞行规则(IFR)产生了每小时超过65架飞机的峰值到达率,超过了目前纽瓦克自由国际机场(EWR)在目视飞行规则(VFR)下每小时52架飞机的最大到达率。尽管参与者认为使用和不使用工具的工作量相对较低,并且可以接受,但他们认为工具进一步减少了他们的工作量。尽管TRACON跑道协调员(TRC)在基线条件下都不认为可接受,但大多数参与者认为在两种情况下安全性和协调性都是可接受的。至于储物柜的角色,处理11宗抵港个案的两名管制员表示,在没有工具的基线情况下,储物柜是非常需要的,而在有工具的情况下,则不需要。这表明这些工具提供了TRC在基线条件下提供的大部分排序和间隔信息。
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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