Enhancing Flight Condition Recognition Performance Through Functional Similarity

IF 5.7 2区 计算机科学 Q1 ENGINEERING, AEROSPACE IEEE Transactions on Aerospace and Electronic Systems Pub Date : 2024-11-20 DOI:10.1109/TAES.2024.3502579
Jessica Leoni;Eugenia Villa;Gabriele Cazzulani;Andrea Baldi;Ugo Mariani;Mara Tanelli
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Abstract

Flight condition recognition (FCR) is pivotal for aviation safety, enabling the recognition of the real usage spectrum, and thus, adapting and optimizing the maintenance schedule defined at design time. However, as the spectrum of flight regimes expands, recognition accuracy becomes complex. With increasing regimes, classifier representations overlap due to synthesized indicators summarizing multivariate time-series behaviors. Neglecting temporal dependencies and dynamic behaviors impairs classifier performance, particularly for specific regimes, limiting the expansion of the recognized set. In this article, we propose a functional similarity index to address this challenge, aiding analysts in identifying similar regimes and improving classification performance. To define such index, we rely on functional data analysis to capture regime dynamics, enhancing both performance and behavior analysis. The designed similarity index offers dual benefits: it investigates supervised FCR classifier outcomes and guides a closed-loop feature selection procedure to enhance recognition performance. This process eliminates the need for direct supervised classifier retraining, using the similarity index as a gauge to estimate the classifier's capability to distinguish critical regimes given a specific features set. When applied to extensive data collected during load survey flights performed by two Leonardo helicopter models, our method provides insights into results assessed by a state-of-the-art FCR supervised classifier. It identifies critical regimes and identifies informative features to include in the set to enhance recognition. This versatile framework has the potential to significantly enhance operational efficiency and aviation system safety, thereby fortifying overall operational capabilities.
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通过功能相似性提高飞行状态识别性能
飞行状态识别(FCR)对于航空安全至关重要,它能够识别真实的使用频谱,从而适应和优化设计时定义的维护计划。然而,随着飞行范围的扩大,识别精度变得复杂。随着制度的增加,由于综合指标总结多元时间序列行为,分类器表示重叠。忽略时间依赖性和动态行为会损害分类器的性能,特别是对于特定的制度,限制了识别集的扩展。在本文中,我们提出了一个功能相似指数来解决这一挑战,帮助分析人员识别相似的制度并提高分类性能。为了定义这样的指数,我们依靠功能数据分析来捕捉制度动态,增强性能和行为分析。设计的相似度指数提供了双重好处:它调查监督FCR分类器的结果,并指导闭环特征选择过程以提高识别性能。这个过程消除了直接监督分类器再训练的需要,使用相似度指数作为衡量标准来估计分类器区分给定特定特征集的关键状态的能力。当应用于由两个莱昂纳多直升机模型执行的负载调查飞行期间收集的大量数据时,我们的方法提供了对由最先进的FCR监督分类器评估的结果的见解。它识别关键制度和识别信息特征,包括在集合中,以提高识别。这种多功能框架具有显著提高作战效率和航空系统安全性的潜力,从而加强整体作战能力。
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来源期刊
CiteScore
7.80
自引率
13.60%
发文量
433
审稿时长
8.7 months
期刊介绍: IEEE Transactions on Aerospace and Electronic Systems focuses on the organization, design, development, integration, and operation of complex systems for space, air, ocean, or ground environment. These systems include, but are not limited to, navigation, avionics, spacecraft, aerospace power, radar, sonar, telemetry, defense, transportation, automated testing, and command and control.
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