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Interval Management Operations in the Terminal Airspace of Amsterdam Airport Schiphol

机译:Amsterdam Airport Schiphol终端空域的间隔管理业务

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For the Schiphol terminal airspace, a new handling concept is developed with fixed arrival routes and continuous descent approaches. The aviation sector agrees that fixed arrival routes are desired from the TMA boundary to the runway related to predictability and enabling continuous descent approaches. Fixed arrival routes however have the tendency to negatively affect capacity and Schiphol can afford no loss of capacity. Therefore, research is done for innovative ways to handle the incoming traffic, to make high capacity combined with fixed arrival routes possible. Interval Management (IM) is seen as one of the promising innovations to support the new handling concept at Schiphol. With IM, aircraft exchange flight information via ADS-B and use this information to control an ATC assigned time interval with a lead aircraft. It is assumed that this close loop control provides the accuracy and predictability that is required to maintain peak hour capacity. The KDC IM research involves a number of phases. In the first phase requirements were captured. During the second phase fast-time simulations were performed to evaluate the spacing performance. The outcome of these simulations is positive: IM can generate the required performance in the Schiphol terminal environment, allowing high-density operations on fixed routes with continuous descents. The third phase progressed with IM real-time simulations (RTS) to assess controller acceptance and workload and to evaluate the IM procedures and IM support tools. The main results of the RTS are: 1. All controllers readily accepted and appreciated the IM Concept of Operations and were able to safely and efficiently manage the arrival traffic in all scenarios, including non-normal events, with the newly developed HMI. 2. Perceived controller workload was generally well within predefined targets in all scenarios. 3. The average number of R/T instructions per aircraft did not vary much between IM and non-IM operations. 4. The percentage of (unanticipated) IM cancellations by the controller was very low (<3%).
机译:对于史基浦终端空域,新的处理概念采用固定的抵达路线和连续的滴灌方法开发。航空部门同意将固定到达路线从TMA边界到与可预测性相关的跑道,并实现连续的血液方法。固定到达路线然而,对能力产生负面影响的趋势,史基浦可以负担不损失容量。因此,为创新的方法来处理传入流量的研究,使高容量与固定的到达路线相结合。间隔管理(IM)被视为有前途的创新之一,以支持史基浦新的处理概念。随着IM,飞机交换飞行信息通过ADS-B并使用此信息来控制带有铅飞机的ATC分配的时间间隔。假设该闭环控制提供了保持高峰小时容量所需的准确性和可预测性。 KDC IM研究涉及许多阶段。在第一阶段要求中被捕获。在第二相期间,进行快速时间模拟以评估间距性能。这些模拟的结果是肯定的:IM可以在史基浦终端环境中产生所需的性能,允许在具有连续下降的固定路线上的高密度操作。第三阶段通过IM实时模拟(RTS)进行了评估控制器接受和工作负载,并评估IM程序和IM支持工具。 RTS的主要结果是:1。所有控制器都容易被接受和欣赏我的行动概念,并能够在新开发的HMI中安全有效地管理所有情景中的到达流量,包括非正常事件。 2.感知的控制器工作量通常在所有方案中的预定义目标内。 3. IM和非IM操作之间的平均R / T指令的平均数量不会变化。 4.控制器的(意外)IM取消的百分比非常低(<3%)。

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