Atmospheric Correction for Polarimetric Images Based on Spectral Segregation

Pu Xia, Xiaolai Chen, Zhaohuan Tang
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Abstract

In hazy weather, light's penetration power is wavelength related, the longer wavelength, the less attenuation. Although traditional polarimetric image-dehazing algorithms have demonstrated their ability in enhancing grayscale images, but their ignorance of the spectral difference will lead to serious color distortion when utilizing these algorithms for color images. To conquer that problem, we propose a new method base on spectral segregation. 15 spectral bands are selected and dehazed with the polarimetric dehazing algorithm separately to obtain the best dehazing effects. The blue, green and red channels of the dehazed image, which are acquired through image fusion of the spectral bands, are adjusted with different coefficients to correct the color distortion. 10 infrared bands are added to the short-wavelength channels to enhance the details of the objects especially the trees. Experiment and data analysis demonstrate the effectiveness of our method in increasing visibility and preserving color information. The amount of color distortion can be reduced by 89.6% compared with the polarimetric image-dehazing algorithm without spectral segregation.
基于光谱分离的偏振图像大气校正
在雾霾天气中,光的穿透能力与波长有关,波长越长,衰减越小。虽然传统的偏振图像去雾算法在增强灰度图像方面表现出了较好的效果,但是在对彩色图像进行去雾处理时,由于忽略了光谱的差异,导致了严重的色彩失真。为了解决这个问题,我们提出了一种基于谱分离的新方法。选取15个光谱波段,分别采用极化除雾算法进行除雾,获得最佳的除雾效果。通过光谱波段的图像融合获取去雾图像的蓝、绿、红通道,用不同的系数对去雾图像的颜色失真进行校正。在短波道上增加了10个红外波段,以增强物体特别是树木的细节。实验和数据分析表明,该方法在提高可视性和保留颜色信息方面是有效的。与无光谱分离的偏振图像去雾算法相比,该算法的色彩畸变量减少了89.6%。
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