InfScene-SR: Arbitrary-Size Image Super-Resolution via Iterative Joint-Denoising
Shoukun Sun, Zhe Wang, Xiang Que, Jiyin Zhang, Xiaogang Ma

TL;DR
InfScene-SR introduces a diffusion-based method for arbitrary-size image super-resolution that eliminates boundary artifacts and enables efficient, distributed processing of large images through innovative joint-denoising techniques.
Contribution
The paper proposes InfScene-SR, a novel diffusion-based super-resolution approach that allows continuous, arbitrary-size image processing with reduced memory and computational overhead.
Findings
Eliminates boundary seams in large-scale image super-resolution.
Achieves superior perceptual quality compared to existing methods.
Enhances downstream semantic segmentation performance.
Abstract
While diffusion models have achieved state-of-the-art performance in Image Super-Resolution (SR), their prohibitive computational and memory demands restrict their training and inference to fixed-size inputs. The standard workaround to super-resolve larger images relies on partitioning the image, super-resolving patches independently, and stitching them together -- a process that inevitably introduces severe boundary artifacts and spatial inconsistencies in large-scale scenes. To achieve spatially continuous, arbitrary-size image super-resolution, we propose InfScene-SR, a diffusion-based SR approach. Building upon SR3, our approach leverages Variance-Corrected Fusion (VCF) to perform joint-denoising across overlapping patches. VCF guarantees continuous transitions while preserving the stochastic variance crucial for high-fidelity texture reconstruction. To overcome the prohibitive…
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Taxonomy
TopicsAdvanced Image Processing Techniques · Advanced Image Fusion Techniques · Generative Adversarial Networks and Image Synthesis
