Chapter 3: Machine Learning and Image Processing Integration Air Traffic Available to Purchase
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Published:2026
Ankur Mittal, Mahesh K. Singh, Nitin Singh Singha, 2026. "Machine Learning and Image Processing Integration Air Traffic", Machine Learning Based Air Traffic Surveillance System Using Image Processing, Jay Kumar Pandey, Mritunjay Rai, Faizan Ahmad
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Air traffic management (ATM) is a complex and dynamic system that evaluates performance and improving operations presents significant challenges. The integration of machine learning (ML) and image processing has emerged as a transformative approach to enhancing ATM systems. With air traffic volumes continually increasing, the demand for efficient, accurate, and scalable solutions to ensure safety and operational excellence has become more critical than ever. The constructive interaction of ML and image processing techniques addresses the multifaceted challenges of ATM, including flight delay prediction, runway monitoring, aircraft recognition, and anomaly detection. A structured framework for data-driven analysis and optimization in ATM utilizes time series analysis, ML, and metaheuristic techniques. Techniques like object detection, edge detection, and segmentation are employed to identify critical visual patterns, such as aircraft positions, weather disturbances, and ground operations. ML models are then utilized to analyze these patterns, enabling predictive insights and real- time decision- making. For instance, convolutional neural networks (CNNs) are applied to classify aircraft types and detect anomalies, while recurrent neural networks (RNNs) and transformers are leveraged for time-series analysis, such as predicting flight delays based on historical and real-time data. One of the primary contributions of this work is the application of ML and image processing in real-time air traffic monitoring and control. By integrating visual data from air traffic control (ATC) systems and other sensors, the framework enables continuous evaluation of runway occupancy, weather conditions, and aircraft movements. This approach serves as a practical ML guide for optimizing continuous aviation systems.
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