4.6 Article

Underwater Image Enhancement Using Deep Transfer Learning Based on a Color Restoration Model

Journal

IEEE JOURNAL OF OCEANIC ENGINEERING
Volume 48, Issue 2, Pages 489-514

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/JOE.2022.3227393

Keywords

Image color analysis; Image restoration; Image enhancement; Degradation; Cameras; Adaptation models; Attenuation; Coarse granularity similarity; physical model; transfer learning; underwater image enhancement

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In this article, an underwater image enhancement framework based on transfer learning is proposed. The framework consists of a domain transformation module and an image enhancement module. The experimental results show that the presented method is superior to some advanced underwater image enhancement algorithms both qualitatively and quantitatively. Furthermore, ablation experiments and application tests are conducted to validate the effectiveness of the method.
In ocean engineering, an underwater vehicle is widely used as an important equipment to explore the ocean. However, due to the reflection and attenuation of light when propagating in water, the images captured by the visual system of an underwater vehicle in the complex underwater environment usually suffer from low visibility, blurred details, and color distortion. To solve this problem, in this article, we present an underwater image enhancement framework based on transfer learning, which consists of a domain transformation module and an image enhancement module. The two modules, respectively, perform color correction and image enhancement, effectively transferring in-air image dehazing to underwater image enhancement. To maintain the physical properties of an underwater image, we embed the physical model into the domain transformation module which ensures that the transformed image complies with the physical model. To effectively remove the color deviation, a coarse-grained similarity calculation is added to the domain transformation module to improve the model performance. The experimental results on real-world underwater images of different scenes show that the presented method is superior to some advanced underwater image enhancement algorithms both qualitatively and quantitatively. Furthermore, we conduct ablation experiments to indicate the contribution of each component and further validate the effectiveness of the presented method through application tests.

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