CA-Seaformer: a road image segmentation algorithm based on improved Seaformer

Road segmentation is crucial for autonomous driving, as it automatically identifies and separates different objects or areas in road scenes—like lanes, pedestrians, and traffic signs—to boost the safety and efficiency of these systems. However, the task is complicated by the complexity of road scenes, which often include diverse elements like lane lines, traffic signs, buildings, pedestrians, and obstacles. This complexity can hinder algorithm performance, especially when road markings are unclear or the scene is highly variable. In this paper, we introduce CA-Seaformer, a road image segmentation algorithm based on an improved Seaformer and Coordinate Attention. Our algorithm balances segmentation accuracy with computational efficiency by using Coordinate Attention to enhance both local and global features, boosting model accuracy and lowering computational overhead. Tests on the CityscapesgtFine dataset reveal that CA-Seaformer surpasses other models, hitting an mIoU of 59.32%, Dice of 72.19%, and Precision of 77.09%, with gains of 21.36%, 22.68%, and 6.82% over Seaformer, respectively. These results demonstrate CA-Seaformer’s strong capabilities in precise localization and detail extraction, making it particularly well-suited for resource-constrained environments and fine-grained segmentation tasks.

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Published
2025-05-23
DOI
https://doi.org/10.1109/icetci64844.2025.11084166
Primary Topic
Underwater Acoustics Research
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article
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article

CA-Seaformer: a road image segmentation algorithm based on improved Seaformer

Yong Yin, Tongxu Wang, Ziheng Zhang, Shiyu Yang et al.
Underwater Acoustics Research
article

CA-Seaformer: a road image segmentation algorithm based on improved Seaformer

Yong Yin, Tongxu Wang, Ziheng Zhang, Shiyu Yang, Ming Wan
article en

Abstract

Road segmentation is crucial for autonomous driving, as it automatically identifies and separates different objects or areas in road scenes—like lanes, pedestrians, and traffic signs—to boost the safety and efficiency of these systems. However, the task is complicated by the complexity of road scenes, which often include diverse elements like lane lines, traffic signs, buildings, pedestrians, and obstacles. This complexity can hinder algorithm performance, especially when road markings are unclear or the scene is highly variable. In this paper, we introduce CA-Seaformer, a road image segmentation algorithm based on an improved Seaformer and Coordinate Attention. Our algorithm balances segmentation accuracy with computational efficiency by using Coordinate Attention to enhance both local and global features, boosting model accuracy and lowering computational overhead. Tests on the CityscapesgtFine dataset reveal that CA-Seaformer surpasses other models, hitting an mIoU of 59.32%, Dice of 72.19%, and Precision of 77.09%, with gains of 21.36%, 22.68%, and 6.82% over Seaformer, respectively. These results demonstrate CA-Seaformer’s strong capabilities in precise localization and detail extraction, making it particularly well-suited for resource-constrained environments and fine-grained segmentation tasks.

Liaoning University (CN), Tianjin University of Science and Technology (CN)
Life below water
Openalex Percentile: Top 81%
Underwater Acoustics Research
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CA-Seaformer: a road image segmentation algorithm based on improved Seaformer — Yong Yin, Tongxu Wang, et al. · (2025) | TGRS Research Map | TGRS