Integrating flight-related information into a (Big) data lake

Miguel A. Martínez-Prieto, A. Bregón, I. García-Miranda, P. C. Álvarez-Esteban, F. Díaz, David Scarlatti
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引用次数: 16

Abstract

Flight cancellations, departure delays, congestion in taxi times and airborne holding delays are increasingly frequent problems that negatively impact the performance, fuel burn, emissions rate and customer satisfaction at major airports in the world. However, this is just a brushstroke of the future to come. The dramatic growth in the air traffic levels has become a problem of paramount importance, leading into an increased interest for enhancing the current Air Traffic Management (ATM) systems. The main objective is to being able to cope with the sustained air traffic growth under safe, economic, efficient and environmental friendly working conditions. The ADS-B (Automatic Dependent Surveillance — Broadcast) technology plays a major role in the new ATM systems, since it provides more accurate real-time positioning information than secondary radars, in spite of using a cheaper infrastructure. However, the main flaw in the use of ADS-B technology is the generation of large volumes of data, that, when merged with other flight-related information, faces important scalability issues. In this work, we start off from a previously developed data lake for the support of the full ADS-B data life-cycle in a scalable and cost-effective way, and propose a data architecture to integrate data from different providers and reconstruct flight trajectories that can ultimately be used to improve the efficiency in flight operations. This data architecture is also evaluated using a 2-week testbed which reports some interesting figures about its effectiveness.
将飞行相关信息整合成一个(大)数据湖
航班取消、起飞延误、出租车时间拥堵和空中等待延误是越来越常见的问题,这些问题对全球主要机场的性能、燃油消耗、排放率和客户满意度产生了负面影响。然而,这只是未来的一笔。空中交通水平的急剧增长已成为一个至关重要的问题,导致人们对加强当前空中交通管理(ATM)系统的兴趣增加。主要目标是能够在安全、经济、高效和环保的工作条件下应对持续增长的空中交通。ADS-B(自动相关监视-广播)技术在新的ATM系统中起着重要作用,因为它比二次雷达提供更准确的实时定位信息,尽管使用更便宜的基础设施。然而,使用ADS-B技术的主要缺陷是产生大量数据,当与其他飞行相关信息合并时,面临重要的可扩展性问题。在这项工作中,我们从先前开发的数据湖开始,以可扩展和经济有效的方式支持整个ADS-B数据生命周期,并提出了一种数据架构,用于集成来自不同提供商的数据并重建飞行轨迹,最终可用于提高飞行操作效率。该数据架构还使用一个为期2周的试验台进行评估,该试验台报告了一些关于其有效性的有趣数据。
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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