An Anti-occlusion Ship Tracking Method based on YOLOX and Improved Matching Algorithm

In inland waterways, vision-based maritime vessel tracking technology is crucial for maritime safety. Due to varying vessel speeds and angles, tracking vessels in complex environments poses a significant challenge. Currently, the mainstream video tracking method is the “Tracking-by-detection” (TBD) approach, which can meet basic tracking requirements. However, its reliance on shape-based recognition leads to bulky models and challenges in improving accuracy. To address vessel tracking confusion in complex scenarios, we introduced ship motion direction parameters into the Hungarian matching algorithm. Specifically, by combining IOU with ship motion direction, we achieved an efficient tracking mechanism that reduces computational costs. Additionally, by integrating YOLOX with the matching module, we improved tracking efficiency. Our proposed method demonstrates excellent performance on an inland waterway video dataset, showing significant improvements in MOTA compared to other methods, along with a noticeable reduction in ship ID switches.

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Publication Details

Published
2025-05-23
DOI
https://doi.org/10.1109/eeiss65394.2025.11085536
Primary Topic
Advanced Algorithms and Applications
Type
article
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article

An Anti-occlusion Ship Tracking Method based on YOLOX and Improved Matching Algorithm

Wenjuan Dai, Jin Liu, Shenjie Zou
Advanced Algorithms and Applications
article

An Anti-occlusion Ship Tracking Method based on YOLOX and Improved Matching Algorithm

Wenjuan Dai, Jin Liu, Shenjie Zou
article en

Abstract

In inland waterways, vision-based maritime vessel tracking technology is crucial for maritime safety. Due to varying vessel speeds and angles, tracking vessels in complex environments poses a significant challenge. Currently, the mainstream video tracking method is the “Tracking-by-detection” (TBD) approach, which can meet basic tracking requirements. However, its reliance on shape-based recognition leads to bulky models and challenges in improving accuracy. To address vessel tracking confusion in complex scenarios, we introduced ship motion direction parameters into the Hungarian matching algorithm. Specifically, by combining IOU with ship motion direction, we achieved an efficient tracking mechanism that reduces computational costs. Additionally, by integrating YOLOX with the matching module, we improved tracking efficiency. Our proposed method demonstrates excellent performance on an inland waterway video dataset, showing significant improvements in MOTA compared to other methods, along with a noticeable reduction in ship ID switches.

Hainan Marine Monitoring and Forecasting Center (CN), Shanghai Maritime University (CN)
Openalex Percentile: Top 79%
Advanced Algorithms and Applications
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