VDMUFusion: A Versatile Diffusion Model-Based Unsupervised Framework for Image Fusion

Yu Shi;Yu Liu;Juan Cheng;Z. Jane Wang;Xun Chen
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Abstract

Image fusion facilitates the integration of information from various source images of the same scene into a composite image, thereby benefiting perception, analysis, and understanding. Recently, diffusion models have demonstrated impressive generative capabilities in the field of computer vision, suggesting significant potential for application in image fusion. The forward process in the diffusion models requires the gradual addition of noise to the original data. However, typical unsupervised image fusion tasks (e.g., infrared-visible, medical, and multi-exposure image fusion) lack ground truth images (corresponding to the original data in diffusion models), thereby preventing the direct application of the diffusion models. To address this problem, we propose a versatile diffusion model-based unsupervised framework for image fusion, termed as VDMUFusion. In the proposed method, we integrate the fusion problem into the diffusion sampling process by formulating image fusion as a weighted average process and establishing appropriate assumptions about the noise in the diffusion model. To simplify the training process, we propose a multi-task learning framework that replaces the original noise prediction network, allowing for simultaneous prediction of noise and fusion weights. Meanwhile, our method employs joint training across various fusion tasks, which significantly improves noise prediction accuracy and yields higher quality fused images compared to training on a single task. Extensive experimental results demonstrate that the proposed method delivers very competitive performance across various image fusion tasks. The code is available at https://github.com/yuliu316316/VDMUFusion.
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VDMUFusion:一种基于扩散模型的多用途无监督图像融合框架
图像融合有助于将来自同一场景的各种源图像的信息集成为合成图像,从而有利于感知、分析和理解。最近,扩散模型在计算机视觉领域展示了令人印象深刻的生成能力,这表明在图像融合方面的应用具有巨大的潜力。扩散模型的正演过程需要在原始数据中逐渐加入噪声。然而,典型的无监督图像融合任务(如红外-可见光、医学和多曝光图像融合)缺乏地面真值图像(对应于扩散模型中的原始数据),从而阻碍了扩散模型的直接应用。为了解决这个问题,我们提出了一个通用的基于扩散模型的无监督图像融合框架,称为VDMUFusion。在该方法中,我们通过将图像融合表述为加权平均过程,并对扩散模型中的噪声建立适当的假设,将融合问题整合到扩散采样过程中。为了简化训练过程,我们提出了一个多任务学习框架来取代原始的噪声预测网络,允许同时预测噪声和融合权值。同时,我们的方法采用跨多个融合任务的联合训练,与单一任务的训练相比,显著提高了噪声预测的精度,产生了更高质量的融合图像。大量的实验结果表明,该方法在各种图像融合任务中具有很强的竞争力。代码可在https://github.com/yuliu316316/VDMUFusion上获得。
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