RetinalCoNet: Underwater Fish Segmentation Network Based on Bionic Retina Dual-Channel and Multi-Module Cooperation

Underwater fish image segmentation is the key technology to realizing intelligent fisheries and ecological monitoring. However, the problems of light attenuation, blurred boundaries, and low contrast caused by complex underwater environments seriously restrict the segmentation accuracy. In this paper, RetinalConet, an underwater fish segmentation network based on bionic retina dual-channel and multi-module cooperation, is proposed. Firstly, the bionic retina dual-channel module is embedded in the encoder to simulate the separation and processing mechanism of light and dark signals by biological vision systems and enhance the feature extraction ability of fuzzy target contours and translucent tissues. Secondly, the dynamic prompt module is introduced, and the response of key features is enhanced by inputting adaptive prompt templates to suppress the noise interference of water bodies. Finally, the edge prior guidance mechanism is integrated into the decoder, and low-contrast boundary features are dynamically enhanced by conditional normalization. The experimental results show that RetinalCoNet is superior to other mainstream segmentation models in the key indicators of mDice, reaching 82.3%, and mIou, reaching 89.2%, and it is outstanding in boundary segmentation in many different scenes. This study achieves accurate fish segmentation in complex underwater environments and contributes to underwater ecological monitoring.

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Publication Details

Journal
Fishes
Published
2025-08-27
DOI
https://doi.org/10.3390/fishes10090424
Primary Topic
Retinal Imaging and Analysis
Type
article
Field-Weighted Citation Impact
0.00

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article

RetinalCoNet: Underwater Fish Segmentation Network Based on Bionic Retina Dual-Channel and Multi-Module Cooperation

Jinfang Liu, Shiyu Zhang, Jianhua Zheng, Yusha Fu et al.
Fishes
Retinal Imaging and Analysis
article

RetinalCoNet: Underwater Fish Segmentation Network Based on Bionic Retina Dual-Channel and Multi-Module Cooperation

Jinfang Liu, Shiyu Zhang, Jianhua Zheng, Yusha Fu, Junde Lu, Z. Luo
article en

Abstract

Underwater fish image segmentation is the key technology to realizing intelligent fisheries and ecological monitoring. However, the problems of light attenuation, blurred boundaries, and low contrast caused by complex underwater environments seriously restrict the segmentation accuracy. In this paper, RetinalConet, an underwater fish segmentation network based on bionic retina dual-channel and multi-module cooperation, is proposed. Firstly, the bionic retina dual-channel module is embedded in the encoder to simulate the separation and processing mechanism of light and dark signals by biological vision systems and enhance the feature extraction ability of fuzzy target contours and translucent tissues. Secondly, the dynamic prompt module is introduced, and the response of key features is enhanced by inputting adaptive prompt templates to suppress the noise interference of water bodies. Finally, the edge prior guidance mechanism is integrated into the decoder, and low-contrast boundary features are dynamically enhanced by conditional normalization. The experimental results show that RetinalCoNet is superior to other mainstream segmentation models in the key indicators of mDice, reaching 82.3%, and mIou, reaching 89.2%, and it is outstanding in boundary segmentation in many different scenes. This study achieves accurate fish segmentation in complex underwater environments and contributes to underwater ecological monitoring.

FishesVol. 10(9)
Zhongkai University of Agriculture and Engineering (CN)
Natural Science Foundation of Guangdong Province
Openalex Percentile: Top 68%
Retinal Imaging and Analysis
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