EAFormer: Edge-Aware Guided Adaptive Frequency-Navigator Network for Image Restoration

Although many deep learning-based image restoration networks have emerged in various image restoration tasks, most can only perform well in a specific type of restoration task and still face challenges in the general performance of image restoration. The fundamental reason for this problem is that different types of degradation require different frequency features, and the image needs to be adaptively reconstructed according to the characteristics of input degradation. At the same time, we noticed that the previous image restoration network ignored the reconstruction of the edge contour details of the image, resulting in unclear contours of the restored image. Therefore, we proposed an edge-aware guided adaptive frequency navigation network, EAFormer, which extracts edge information in the image by applying different edge detection operators and reconstructs the edge contour details of the image more accurately during the restoration process. The adaptive frequency navigation perceives different frequency components in the image and interactively participates in the subsequent restoration process with high- and low-frequency feature information, better retaining the global structural information of the image and making the restored image more visually coherent and realistic. We verified the versatility of EAFormer in five classic image restoration tasks, and many experimental results also show that our model has advanced performance.

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Publication Details

Journal
Sensors
Published
2025-09-22
DOI
https://doi.org/10.3390/s25185912
Primary Topic
Advanced Image Processing Techniques
Type
article
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article

EAFormer: Edge-Aware Guided Adaptive Frequency-Navigator Network for Image Restoration

Wenrui Wang, Dong Chi Zhou, Wenjie Xie, Wenshuai Zhang
Sensors
Advanced Image Processing Techniques
article

EAFormer: Edge-Aware Guided Adaptive Frequency-Navigator Network for Image Restoration

Wenrui Wang, Dong Chi Zhou, Wenjie Xie, Wenshuai Zhang
article en

Abstract

Although many deep learning-based image restoration networks have emerged in various image restoration tasks, most can only perform well in a specific type of restoration task and still face challenges in the general performance of image restoration. The fundamental reason for this problem is that different types of degradation require different frequency features, and the image needs to be adaptively reconstructed according to the characteristics of input degradation. At the same time, we noticed that the previous image restoration network ignored the reconstruction of the edge contour details of the image, resulting in unclear contours of the restored image. Therefore, we proposed an edge-aware guided adaptive frequency navigation network, EAFormer, which extracts edge information in the image by applying different edge detection operators and reconstructs the edge contour details of the image more accurately during the restoration process. The adaptive frequency navigation perceives different frequency components in the image and interactively participates in the subsequent restoration process with high- and low-frequency feature information, better retaining the global structural information of the image and making the restored image more visually coherent and realistic. We verified the versatility of EAFormer in five classic image restoration tasks, and many experimental results also show that our model has advanced performance.

SensorsVol. 25(18)
University of Electronic Science and Technology of China (CN)
Openalex Percentile: Top 75%
Advanced Image Processing Techniques
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