A Deep Multimodal Fusion and Multitasking Trajectory Prediction Model for Typhoon Trajectory Prediction to Reduce Flight Scheduling Cancellation

IF 1.9 3区 计算机科学 Q3 AUTOMATION & CONTROL SYSTEMS Journal of Systems Engineering and Electronics Pub Date : 2024-04-23 DOI:10.23919/jsee.2024.000042
Jun Tang, Wanting Qin, Qingtao Pan, Songyang Lao
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Abstract

Natural events have had a significant impact on overall flight activity, and the aviation industry plays a vital role in helping society cope with the impact of these events. As one of the most impactful weather typhoon seasons appears and continues, airlines operating in threatened areas and passengers having travel plans during this time period will pay close attention to the development of tropical storms. This paper proposes a deep multimodal fusion and multitasking trajectory prediction model that can improve the reliability of typhoon trajectory prediction and reduce the quantity of flight scheduling cancellation. The deep multimodal fusion module is formed by deep fusion of the feature output by multiple submodal fusion modules, and the multitask generation module uses longitude and latitude as two related tasks for simultaneous prediction. With more dependable data accuracy, problems can be analysed rapidly and more efficiently, enabling better decision-making with a proactive versus reactive posture. When multiple modalities coexist, features can be extracted from them simultaneously to supplement each other's information. An actual case study, the typhoon Lichma that swept China in 2019, has demonstrated that the algorithm can effectively reduce the number of unnecessary flight cancellations compared to existing flight scheduling and assist the new generation of flight scheduling systems under extreme weather.
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用于台风轨迹预测的深度多模态融合和多任务轨迹预测模型,以减少航班计划的取消
自然事件对整个飞行活动产生了重大影响,而航空业在帮助社会应对这些事件的影响方面发挥着至关重要的作用。随着影响最大的台风季节的出现和持续,在受威胁地区运营的航空公司和在此期间有旅行计划的乘客将密切关注热带风暴的发展。本文提出了一种深度多模态融合和多任务轨迹预测模型,可提高台风轨迹预测的可靠性,减少航班调度取消的数量。深度多模态融合模块由多个子模态融合模块输出的特征深度融合而成,多任务生成模块将经度和纬度作为两个相关任务同时进行预测。有了更可靠的数据准确性,就能更快速、更高效地分析问题,从而以主动而非被动的姿态做出更好的决策。当多种模式并存时,可以同时从中提取特征,以补充彼此的信息。2019年席卷中国的台风 "利玛 "的实际案例研究表明,与现有的航班调度相比,该算法可以有效减少不必要的航班取消数量,为极端天气下的新一代航班调度系统提供帮助。
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来源期刊
Journal of Systems Engineering and Electronics
Journal of Systems Engineering and Electronics 工程技术-工程:电子与电气
CiteScore
4.10
自引率
14.30%
发文量
131
审稿时长
7.5 months
期刊介绍: Information not localized
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