This work introduces a semi-supervised object detection framework utilizing high-quality pseudo-labels (HQPL-SSOD), which includes a localization quality-based pseudo-label filter to ensure the use of only high-quality pseudo-labels during training.
Abstract
Underwater object detection remains a challenging task due to the degradation of image quality caused by light absorption and scattering. To address this, we propose an innovative method combining adaptive visual enhancement and semi-supervised learning for robust underwater object detection. Our approach incorporates a visual enhancement and joint training-based image preprocessing method (VEJT-IP), which utilizes existing visual enhancement algorithms guided by object detection loss to preprocess underwater images. Additionally, we introduce a semi-supervised object detection framework utilizing high-quality pseudo-labels (HQPL-SSOD), which includes a localization quality-based pseudo-label filter to ensure the use of only high-quality pseudo-labels during training. Extensive experiments on the URPC2022 dataset demonstrate that our method significantly improves detection accuracy compared to baseline models, achieving a good balance between accuracy and annotation cost. The proposed approach improves underwater object detection performance under the evaluated URPC2022 conditions and provides a basis for further validation in broader underwater environments.
Experimental results demonstrate that the proposed Bidirectional weighted Concat with Efficient multi-scale Attention You Only Look Once (BCEA-YOLO) method outperforms competing methods for underwater object detection, and edge deployment tests on the NVIDIA Jetson platform validate its real-time inference efficiency.
Xing-Yu Wang, Yu-Han Lin, Quan J. Wang et al.· Intelligent Marine Technolog...· 0 citations
Experimental results indicate that the proposed self-supervised monocular visual odometry framework achieves higher depth estimation and pose estimation accuracy than existing state-of-the-art monocular VO approaches, and results suggest that the proposed framework is well suited to challenging underwater environments.
Underwater object detection faces severe challenges caused by light attenuation, scattering, spatially varying turbidity, and boundary blur, which weaken object-related visual signals and reduce localization reliability. This letter presents MED, a Mamba-Enhanced Detector for degradation-aware underwater object detecti...
Yaoming Zhuang, Zi-Rui Fang, Jia-Ming Liu et al.· IEEE Signal Processing Lette...· 0 citations
Results show that physics-grounded diffusion synthesis provides the main robustness gain, while SA-FNWD offers a complementary small-object localization improvement with no inference overhead.
Results support the effectiveness of the proposed framework for mixed-scale underwater object detection, including small-scale objects, and compare with the YOLOv11 baseline.
Results demonstrate that the proposed robust underwater object detection method can provide more stable and accurate underwater target detection under complex imaging conditions.
Gao-Quan Gu, Kai Liu, Qing-Chao Yang· IEEE Access· 0 citations
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