基于像素变化的RGB通道水下图像去雾技术

Fayadh S. Alenezi
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引用次数: 1

摘要

水下成像领域一直受到雾霾问题的困扰,雾霾是由于水分子和悬浮粒子在光线到达相机之前吸收和散射光线而产生的一种遮挡效应。该技术利用单个RGB颜色通道并分析小像素delta,以消除水下图像的雾霾并提高感知视觉精度。GARCH模型用于估计传输图,因为它可以通过利用增强图像特征之间像素变化导致的颜色通道内像素变化的波动性来准确估计人类的视觉感知。利用不同颜色波长的不同光发射来估计背景光。基于熵、UIQMnorm和UCIQE对系统进行评估,然后与现有的最先进的方法进行比较。结果表明,该技术在视觉分析和性能评估指标方面都具有优越性。未来的研究应该检查GARCH单独对算法的影响,并探索使用其他网络(如Hopfield神经网络)替代实现算法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Pixel-Changes-Based RGB Channels for a Novel Underwater Image Dehazing Technique
The field of underwater imaging is plagued by the problem of haze, which is an obscuring effect caused by water molecules and suspended particles absorbing and scattering light rays before the rays reach the camera. This proposed technique exploits individual RGB color channels and analyzes small pixel deltas in order to dehaze underwater images and increase perceived visual accuracy. A GARCH model is employed to estimate transmission maps because it can accurately estimate human visual perception by exploiting the volatility of pixel changes within color channels that result from changes in pixels between enhanced image features. Background light is estimated using differential light emissions in different color wavelengths. The proposed system is evaluated based on entropy, UIQMnorm, and UCIQE, then compared with existing state-of-the-art methods. The results demonstrate that this technique is superior in both visual analysis and performance evaluation metrics. Future research should examine the effect of GARCH alone on the algorithm and also explore the use of other networks such as Hopfield neural networks to alternatively implement the algorithm.
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