arXiv (Cornell University) · 2019 · 125 citations · 31 references
ComputingComputer ScienceOcean EngineeringComputer VisionMachine LearningSensor FusionDeep LearningImage EnhancementImage Feature EngineeringImage FusionUnderwater PerceptionAdversarial LossDegradationHaze CorrectionHaze EffectsNetwork FusionUnderwater Image EnhancementUnderwater Image ProcessingUnderwater Sensor Fusion
Underwater image enhancement algorithms have attracted much attention, yet they are mainly evaluated on disparate datasets and metrics. The authors introduce the U45 public test dataset, capturing color casts, low contrast, and haze‑like effects, and propose a fusion adversarial network to enhance underwater images. The network employs a well‑designed adversarial loss comprising Lgt and Lfe components to focus on ground‑truth and enhanced image features. The network corrects color casts, runs faster with fewer parameters, and outperforms or matches state‑of‑the‑art methods on U45, as shown by qualitative and quantitative results, ablation studies, and application tests.
Underwater image enhancement algorithms have attracted much attention in underwater vision task. However, these algorithms are mainly evaluated on different data sets and different metrics. In this paper, we set up an effective and pubic underwater test dataset named U45 including the color casts, low contrast and haze-like effects of underwater degradation and propose a fusion adversarial network for enhancing underwater images. Meanwhile, the well-designed the adversarial loss including Lgt loss and Lfe loss is presented to focus on image features of ground truth, and image features of the image enhanced by fusion enhance method, respectively. The proposed network corrects color casts effectively and owns faster testing time with fewer parameters. Experiment results on U45 dataset demonstrate that the proposed method achieves better or comparable performance than the other state-of-the-art methods in terms of qualitative and quantitative evaluations. Moreover, an ablation study demonstrates the contributions of each component, and the application test further shows the effectiveness of the enhanced images.
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