
pmid: 28182556
Underwater images often suffer from color distortion and low contrast, because light is scattered and absorbed when traveling through water. Such images with different color tones can be shot in various lighting conditions, making restoration and enhancement difficult. We propose a depth estimation method for underwater scenes based on image blurriness and light absorption, which can be used in the image formation model (IFM) to restore and enhance underwater images. Previous IFM-based image restoration methods estimate scene depth based on the dark channel prior or the maximum intensity prior. These are frequently invalidated by the lighting conditions in underwater images, leading to poor restoration results. The proposed method estimates underwater scene depth more accurately. Experimental results on restoring real and synthesized underwater images demonstrate that the proposed method outperforms other IFM-based underwater image restoration methods.
Artificial Intelligence and Image Processing, Computer vision and multimedia computation, image restoration, Computer Vision and Multimedia Computation, Information and Computing Sciences, blurriness, augmented reality and games, light absorption, Underwater image, depth estimation, Graphics, Cognitive Sciences, Artificial Intelligence & Image Processing, image enhancement, Electrical and Electronic Engineering
Artificial Intelligence and Image Processing, Computer vision and multimedia computation, image restoration, Computer Vision and Multimedia Computation, Information and Computing Sciences, blurriness, augmented reality and games, light absorption, Underwater image, depth estimation, Graphics, Cognitive Sciences, Artificial Intelligence & Image Processing, image enhancement, Electrical and Electronic Engineering
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