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Pairwise Distance Distillation for Unsupervised Real-World Image Super-Resolution
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Standard single-image super-resolution creates paired training data from high-resolution images through fixed downsampling kernels. However, real-world super-resolution (RWSR) faces unknown degradations in the low-resolution inputs, all the while lacking paired training data. Existing methods approach this problem by learning blind general models through complex synthetic augmentations on training inputs; they sacrifice the performance on specific degradation for broader generalization to many possible ones. We address the unsupervised RWSR for a targeted real-world degradation. We study from a distillation perspective and introduce a novel pairwise distance distillation framework. Through our framework, a model specialized in synthetic degradation adapts to target real-world degradations by distilling intra- and inter-model distances across the specialized model and an auxiliary generalized model. Experiments on diverse datasets demonstrate that our method significantly enhances fidelity and perceptual quality, surpassing state-of-the-art approaches in RWSR. The source code is available at https://github.com/Yuehan717/PDD.
Forward citations
Cited by 2 Pith papers
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Adversarial Diffusion Compression for Real-World Image Super-Resolution
AdcSR distills OSEDiff into a pruned diffusion-GAN that cuts inference time 3.7x and parameters 74% while achieving comparable super-resolution quality.
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High-Resolution Be Aware! Improving the Self-Supervised Real-World Super-Resolution
A test-time self-supervised super-resolution method that rescales degradation embeddings by an LPIPS-based quality score and regularizes SR features toward CLIP features improves LPIPS and NRQM on real-world benchmarks.
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