增强ASQP运营商的航班延误数据

D. P. Robinson, Daniel Murphy
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引用次数: 0

摘要

本研究的目的是探讨行程产生程序及其对延误的影响。为了使国家空域系统(NAS)模型传播延迟,必须将需求集中的航班连接在一起。目前,在对NAS进行建模或分析时,分析有两个主要数据源用于生成需求集——ASQP和TFMS。这两种数据集都有其优点和局限性。ASQP数据集包括定期直飞客运业务的定期和实际航班数据,以及有关哪架飞机运行特定航班和延误原因的信息。然而,ASQP数据集只包含美国最大的航空公司运营的国内航班,目前只有16家。TFMS数据集包含更大的航班集,但不包含唯一的飞机标识符或延误原因。连接各个航班最好使用唯一标识符。由于ASQP数据集只包含国内航班,而TFMS数据集不包含唯一的飞机标识符,因此跟踪飞机的日常运动变得复杂。ASQP记录的航班可能表明飞机从一个机场传送到另一个机场,或者它在一个机场停留了出乎意料的长时间,当飞机实际上飞到一个国际目的地时,要么转移到另一个国内机场(传送),要么返回原来的机场(飞机周转时间长)。在本次调查中,我们开发了一个流程,通过为有限的几家航空公司确定国内和国际航班运营的适当飞机尾号,来增强现有的航班延误数据。我们的方法使用贪婪算法来确定TFMS数据集内可能的国际航班,这些航班可以填补ASQP数据集中由于隐形传态或长时间停留而产生的漏洞。我们在一年的定期航班上测试了我们的流程。然后,我们将这组行程所导致的延误与用不同方法生成的一组行程所导致的延误进行了比较。使用我们的新流程生成的行程比使用其他方法生成的行程更真实。它们也产生了与实际延迟更相似的延迟。
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Enhanced flight delay data for ASQP carriers
The objective of this study was to investigate itinerary generation procedures and their effect on delay. In order for a National Airspace System (NAS) model to propagate delay, the flights within the demand set must be linked together. Currently, when modeling or analyzing the NAS, an analysis has two primary data sources to use in generating a demand set - ASQP and TFMS. Both of those datasets have their benefits and limitations. The ASQP dataset includes scheduled and actual flight data for scheduled nonstop passenger operations, as well as well as information about which aircraft operated a particular flight and causes of delay. However, the ASQP dataset only contains domestic flights operated by the largest U.S. carriers, currently only sixteen. The TFMS dataset contains a much larger set of flights, but does not contain a unique aircraft identifier or causes of delay. Linking individual flights is best done with a unique identifier. Because the ASQP dataset only contains domestic flights and the TFMS dataset does not include a unique aircraft identifier, tracking the daily movement of an aircraft becomes complicated. The ASQP recorded flights may suggest that an aircraft teleported from one airport to another or that it sat at an airport an unexpectedly long time, when the aircraft actually flew to an international destination and either moved on to another domestic airport (teleportation) or returned to the original airport (long aircraft turnaround time). Within this investigation, we developed a process for enhancing existing flight delay data by determining an appropriate aircraft tail numbers for domestic and international flight operations for a limited set of carriers. Our method uses a greedy algorithm to determine the possible international flights within the TFMS dataset that can fill the holes in the ASQP dataset created by a teleportation or a long sit time. We tested our process on one year of scheduled flights. We then compared the delay resulting from that set of itineraries with the delay resulting from a set of itineraries generated with a different methodology. The itineraries, generated using our new process, were more realistic than those generated with the other method. They also produced delays more similar to the actual delays.
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