Oct 2026· Measurement science and technology· Vol 37· 0 citations· 59 references
Physics
TL;DR
A Dual-Domain Guided Adaptive Super-Resolution method that comprehensively outperforms state-of-the-art methods in reconstruction quality but also provides a highly practical solution for large-scale remote sensing image processing with its superior inference efficiency.
Abstract
Remote sensing image super-resolution aims to recover high-frequency details from low-resolution (LR) images. However, when processing complex terrains and tiny objects, existing methods often struggle with insufficient detail recovery, structural distortion, and limited generalization. Although diffusion models possess powerful generative priors, their direct application to the remote sensing domain suffers from high computational costs, false textures, and structural deformations. To address these issues, this paper proposes a dual-domain guided adaptive super-resolution method. Unlike conventional methods that mainly optimize in a single domain, our method builds an efficient adaptive generation framework that improves robustness to complex unknown degradations while reducing the number of reverse-diffusion evaluations. Specifically, we extract a spatial structural feature map from the LR image and use it as geometric guidance for the adaptive initialization. We further integrate a wavelet-domain loss with pixel, perceptual, and adversarial losses to explicitly constrain frequency-specific reconstruction errors. Experiments on multiple benchmark datasets demonstrate a favorable trade-off among structural preservation, perceptual quality, and inference efficiency. The method is competitive on distortion-oriented metrics and shows advantages on selected perception-oriented and no-reference metrics.
Image super-resolution (SR) aims to recover a high-resolution (HR) image from its low-resolution (LR) counterpart, yet accurately reconstructing texture details in complex regions remains challenging. This issue is particularly pronounced in remote sensing images (RSIs), which contain diverse textures and small-scale o...
Cui-Cui Lv, Jia-Jie Wang, Shu-Zhen Xu et al.· IEEE Transactions on Geoscie...· 0 citations
Remote sensing image super-resolution (SR) aims to recover high-resolution images from low-resolution observations, but existing deep networks often emphasize spatial-domain modeling and pixel-wise optimization, which may limit their ability to restore high-frequency textures and preserve perceptual structures. To addr...
Low-resolution remote sensing imagery often degrades downstream object detection by blurring object boundaries and suppressing class-discriminative textures, particularly for small and densely distributed targets under sensing and transmission constraints. Although Remote Sensing Image Super-Resolution (RSISR) has achi...
Ming-Ming Xie, Hong-Wei Li, Meng-Ni Xu et al.· ITU Journal on Future and Ev...· 0 citations
Remote sensing image super-resolution aims to reconstruct high-quality spatial details from low-resolution observations, which is essential for land-cover interpretation, object detection, and downstream geospatial analysis. However, existing convolutional neural network (CNN)- and Transformer-based methods may struggl...
Shuai Liu, J. Fonseca, André Mora· Remote Sensing· 0 citations
With the rapid development of high-resolution remote sensing platforms and the growing demand for intelligent Earth observation, remote sensing image semantic segmentation has become a key technology for road extraction, urban–rural planning, disaster monitoring, and ecological assessment. However, complex remote sensi...
Zi Yuan, Quan-Nian Zhang, Guo-Tong Geng et al.· IEEE Journal of Selected Top...· 0 citations
Remote sensing image super-resolution (SR) fundamentally relies on effective feature representation learning. However, the existing methods that adopt mainstream architecture designs, such as transformer and state space model (SSM), are often restricted by two factors when dealing with the SR of remote sensing images....
Kang-Hui Zhao, Tao Lu, Jia-Ming Wang et al.· IEEE Transactions on Geoscie...· 0 citations
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