Convolutional dual graph Laplacian sparse coding
Xuefeng Peng (1), Fei Chen (2), Hang Cheng (1), Meiqing Wang (1) ((1), School of Mathematics, Statistics, Fuzhou University, Fuzhou, Fujian,, China, (2) College of Computer, Data Science, Fuzhou University, Fuzhou,, Fujian, China)

TL;DR
This paper introduces a convolutional sparse coding model utilizing a dual graph Laplacian regularizer to improve image denoising by effectively smoothing both rows and columns of images, leading to clearer textures.
Contribution
It proposes a novel dual graph Laplacian regularizer for convolutional sparse coding, enhancing image restoration by leveraging dual graph smoothing priors.
Findings
Better denoising with fewer noise points
Clearer image textures after processing
Effective use of dual graph regularization
Abstract
In recent years, graph signal processing (GSP) technology has become popular in various fields, and graph Laplacian regularizers have also been introduced into convolutional sparse representation. This paper proposes a convolutional sparse representation model based on the dual graph Laplacian regularizer to ensure effective application of a dual graph signal smoothing prior on the rows and columns of input images.The graph Laplacian matrix contains the gradient information of the image and the similarity information between pixels, and can also describe the degree of change of the graph, so the image can be smoothed. Compared with the single graph smoothing prior, the dual graph has a simple structure, relaxes the conditions, and is more conducive to image restoration using the image signal prior. In this paper, this paper formulated the corresponding minimization problem using the…
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Taxonomy
TopicsAdvanced Graph Neural Networks · Complex Network Analysis Techniques · Advanced Computing and Algorithms
