Handling Outliers In Non Blind Image Deconvolution. Non-blind deconvolution is a key component in image deblurring systems. Previous deconvolution methods assume a linear blur model where the blurred image is generated by a linear convolution. Handling blurred images with significant outliers is chal- lenging and existing methods 429 mainly address the effects of outliers for non-blind deblurring. To address blurred images with outliers in blind image deblurring one type of methods depends heavily on domain-specific prop-.
ficiently removed by explicitly modeling the outliers in the deconvolution process. Also the convolution model is only an approximation to practical blurring effect. However state-of-the-art deblurring methods do not perform well on real-world images degraded with significant noise or outliers. Outlier Analysis In this section we analyze how various types of outliers violate the linear blur model and cause artifacts in previous approaches. If you generate data eg images tables of processing times etc using the code for an academic publication please include the following citation in your paper. Inthisworkwepresentaconvolutionalneu-ral network-based approach to handle kernel uncertainty in non-blind motion deblurring.
Previous deconvolution methods assume a linear blur model where the blurred image is generated by a linear convolution of the latent image and the blur kernel.
However state-of-the-art deblurring methods do not perform well on real-world images degraded with significant noise or outliers. We provide multiple latent image estimates corresponding to different prior strengths. Non-blind deconvolution is a key component in image deblurring systems. Image denoising and image deconvolution. Attempt to faithfully restore the original image given the blur estimate. This assumption often does not hold in practice due to various types of outliers in the imaging process.