Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image Denoising

Traditional image denoising algorithms obtain prior information from noisy images that are directly based on low rank matrix restoration, which pays little attention to the nonlocal self-similarity errors between clear images and noisy images. This paper proposes a new image denoising algorithm base...

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Main Authors: Jiucheng Xu, Yihao Cheng, Yuanyuan Ma
Format: Article
Language:English
Published: MDPI AG 2021-01-01
Series:Entropy
Subjects:
Online Access:https://www.mdpi.com/1099-4300/23/2/158
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spelling doaj-fbddc80edf91403d8005fa407f030b282021-01-28T00:06:38ZengMDPI AGEntropy1099-43002021-01-012315815810.3390/e23020158Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image DenoisingJiucheng Xu0Yihao Cheng1Yuanyuan Ma2College of Computer and Information Engineering, Henan Normal University, Xinxiang 453007, ChinaCollege of Computer and Information Engineering, Henan Normal University, Xinxiang 453007, ChinaCollege of Computer and Information Engineering, Henan Normal University, Xinxiang 453007, ChinaTraditional image denoising algorithms obtain prior information from noisy images that are directly based on low rank matrix restoration, which pays little attention to the nonlocal self-similarity errors between clear images and noisy images. This paper proposes a new image denoising algorithm based on low rank matrix restoration in order to solve this problem. The proposed algorithm introduces the non-local self-similarity error between the clear image and noisy image into the weighted Schatten <i>p</i>-norm minimization model using the non-local self-similarity of the image. In addition, the low rank error is constrained by using Schatten <i>p</i>-norm to obtain a better low rank matrix in order to improve the performance of the image denoising algorithm. The results demonstrate that, on the classic data set, when comparing with block matching 3D filtering (BM3D), weighted nuclear norm minimization (WNNM), weighted Schatten <i>p</i>-norm minimization (WSNM), and FFDNet, the proposed algorithm achieves a higher peak signal-to-noise ratio, better denoising effect, and visual effects with improved robustness and generalization.https://www.mdpi.com/1099-4300/23/2/158image denoisinglow rank representationweighted schatten p-normlow rank error constraint
collection DOAJ
language English
format Article
sources DOAJ
author Jiucheng Xu
Yihao Cheng
Yuanyuan Ma
spellingShingle Jiucheng Xu
Yihao Cheng
Yuanyuan Ma
Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image Denoising
Entropy
image denoising
low rank representation
weighted schatten p-norm
low rank error constraint
author_facet Jiucheng Xu
Yihao Cheng
Yuanyuan Ma
author_sort Jiucheng Xu
title Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image Denoising
title_short Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image Denoising
title_full Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image Denoising
title_fullStr Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image Denoising
title_full_unstemmed Weighted Schatten <i>p</i>-Norm Low Rank Error Constraint for Image Denoising
title_sort weighted schatten <i>p</i>-norm low rank error constraint for image denoising
publisher MDPI AG
series Entropy
issn 1099-4300
publishDate 2021-01-01
description Traditional image denoising algorithms obtain prior information from noisy images that are directly based on low rank matrix restoration, which pays little attention to the nonlocal self-similarity errors between clear images and noisy images. This paper proposes a new image denoising algorithm based on low rank matrix restoration in order to solve this problem. The proposed algorithm introduces the non-local self-similarity error between the clear image and noisy image into the weighted Schatten <i>p</i>-norm minimization model using the non-local self-similarity of the image. In addition, the low rank error is constrained by using Schatten <i>p</i>-norm to obtain a better low rank matrix in order to improve the performance of the image denoising algorithm. The results demonstrate that, on the classic data set, when comparing with block matching 3D filtering (BM3D), weighted nuclear norm minimization (WNNM), weighted Schatten <i>p</i>-norm minimization (WSNM), and FFDNet, the proposed algorithm achieves a higher peak signal-to-noise ratio, better denoising effect, and visual effects with improved robustness and generalization.
topic image denoising
low rank representation
weighted schatten p-norm
low rank error constraint
url https://www.mdpi.com/1099-4300/23/2/158
work_keys_str_mv AT jiuchengxu weightedschattenipinormlowrankerrorconstraintforimagedenoising
AT yihaocheng weightedschattenipinormlowrankerrorconstraintforimagedenoising
AT yuanyuanma weightedschattenipinormlowrankerrorconstraintforimagedenoising
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