NeurOp-Diff: Continuous Remote Sensing Image Super-Resolution via Neural Operator Diffusion
Abstract
Most publicly accessible remote sensing data suffer from low resolution, limiting their practical applications. To address this, we propose a diffusion model guided by neural operators (NO) for continuous remote sensing image super-resolution (NeurOp-Diff). Neural operators are used to learn resolution representations at arbitrary scales, encoding low-resolution (LR) images into high-dimensional features, which are then used as prior conditions to guide the diffusion model for denoising. This effectively addresses the artifacts and excessive smoothing issues present in existing super-resolution (SR) methods, enabling the generation of high-quality, continuous super-resolution images. Specifically, we adjust the super-resolution scale by a scaling factor (s), allowing the model to adapt to different super-resolution magnifications. Furthermore, experiments on multiple datasets demonstrate the effectiveness of NeurOp-Diff. Our code is available at https://github.com/zerono000/NeurOp-Diff.
Cite
Text
Xu et al. "NeurOp-Diff: Continuous Remote Sensing Image Super-Resolution via Neural Operator Diffusion." International Conference on Computer Vision, 2025.Markdown
[Xu et al. "NeurOp-Diff: Continuous Remote Sensing Image Super-Resolution via Neural Operator Diffusion." International Conference on Computer Vision, 2025.](https://mlanthology.org/iccv/2025/xu2025iccv-neuropdiff/)BibTeX
@inproceedings{xu2025iccv-neuropdiff,
title = {{NeurOp-Diff: Continuous Remote Sensing Image Super-Resolution via Neural Operator Diffusion}},
author = {Xu, Zihao and Tang, Yuzhi and Xu, Bowen and Li, Qingquan},
booktitle = {International Conference on Computer Vision},
year = {2025},
pages = {12491-12501},
url = {https://mlanthology.org/iccv/2025/xu2025iccv-neuropdiff/}
}