Enhanced Seafog Detection Using Deep Learning and Contrastive Learning: Integrating Spectral and Motion Features

Seafog detection is a complex challenge in meteorology, primarily due to the extensive distribution of seafog and the limited availability of maritime observation stations. Remote sensing meteorological satellites, with their wide-area observation capabilities and abundant data resources, hold significant potential for seafog detection. However, current seafog detection approaches—whether based on traditional thresholding techniques or deep learning methods—do not fully exploit the multichannel information provided by remote sensing data, nor do they effectively capture the physical motion differences between seafog and other cloud types. Deep learning has demonstrated notable performance in seafog detection tasks, yet traditional threshold-based methods for seafog detection still hold the advantage of strong physical interpretability. Furthermore, challenges such as fuzzy seafog boundaries and overlap with clouds lead to discontinuous and incomplete detection regions, posing significant challenges for practical applications. To address these issues, we propose a deep learning approach that integrates the spectral and motion physical characteristics of seafog and various cloud types, enhancing the feature distinctions between seafog and other clouds to enable more accurate and interpretable feature extraction. To further optimize feature extraction, we propose a contrastive learning mechanism for seafog, aimed at amplifying the distinctions between seafog and other cloud types while simultaneously reducing intraclass variability within seafog across different conditions. Finally, we propose a probabilistic mask representation, which effectively mitigates the issue of regional discontinuities in detection, thereby enhancing the overall performance of the detection process. Our extensive experiments on the FY-4A satellite dataset demonstrate a CSI of 64.98%, which is 7.41% higher than the current best-performing method.

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Publication Details

Journal
IEEE Transactions on Geoscience and Remote Sensing
Published
2025-01-01
DOI
https://doi.org/10.1109/tgrs.2025.3555525
Primary Topic
Identification and Quantification in Food
Type
article
Field-Weighted Citation Impact
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article

Enhanced Seafog Detection Using Deep Learning and Contrastive Learning: Integrating Spectral and Motion Features

Mingrui Xu, Chuang Zhang, Mengqiu Xu, Ming Wu et al.
IEEE Transactions on Geoscience and Remote Sensing
Identification and Quantification in Food
article

Enhanced Seafog Detection Using Deep Learning and Contrastive Learning: Integrating Spectral and Motion Features

Mingrui Xu, Chuang Zhang, Mengqiu Xu, Ming Wu, Luming Xiao
article en

Abstract

Seafog detection is a complex challenge in meteorology, primarily due to the extensive distribution of seafog and the limited availability of maritime observation stations. Remote sensing meteorological satellites, with their wide-area observation capabilities and abundant data resources, hold significant potential for seafog detection. However, current seafog detection approaches—whether based on traditional thresholding techniques or deep learning methods—do not fully exploit the multichannel information provided by remote sensing data, nor do they effectively capture the physical motion differences between seafog and other cloud types. Deep learning has demonstrated notable performance in seafog detection tasks, yet traditional threshold-based methods for seafog detection still hold the advantage of strong physical interpretability. Furthermore, challenges such as fuzzy seafog boundaries and overlap with clouds lead to discontinuous and incomplete detection regions, posing significant challenges for practical applications. To address these issues, we propose a deep learning approach that integrates the spectral and motion physical characteristics of seafog and various cloud types, enhancing the feature distinctions between seafog and other clouds to enable more accurate and interpretable feature extraction. To further optimize feature extraction, we propose a contrastive learning mechanism for seafog, aimed at amplifying the distinctions between seafog and other cloud types while simultaneously reducing intraclass variability within seafog across different conditions. Finally, we propose a probabilistic mask representation, which effectively mitigates the issue of regional discontinuities in detection, thereby enhancing the overall performance of the detection process. Our extensive experiments on the FY-4A satellite dataset demonstrate a CSI of 64.98%, which is 7.41% higher than the current best-performing method.

IEEE Transactions on Geoscience and Remote SensingVol. 63
Beijing University of Posts and Telecommunications (CN)
Life below water
Openalex Percentile: Top 94%
Identification and Quantification in Food
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