Multi-Scale Spatial Channel Joint Representation for General Multi-Modality Image Fusion With Self-Supervision
Abstract
The rapid advancement of multi-modality image fusion technology enables researchers to simultaneously acquire information from different modalities within a single fused image. In existing methods, some general approaches can implement both infrared and visible image fusion (IVIF) and medical image fusion (MIF) in the same framework. Nevertheless, these methods often ignore the learning of specific features in different modalities, resulting in unsatisfactory performance in fused results. To overcome this issue, we propose a multi-scale joint framework with self-supervision for general multi-modality image fusion, abbreviated as SCSFusion. It enables more targeted and robust implementation of IVIF and MIF. Specifically, in the fusion network, a joint attention module is employed to parallelly capture self-attention features in spatial and channel domains, which can keep fused results accurate in visual representation. Meanwhile, we utilize source images of different modalities to generate visual-focused maps as pseudo labels for self-supervised training of the fusion results. It effectively preserves the salient details in each fused image from being disrupted by other extracted information. Moreover, a medical dataset with segmentation labels, termed M2DF, is reorganized for fusion and down-stream tasks in MIF. With the help of M2DF, a pre-trained segmentation model can be cascaded with the fusion network, aiming to obtain high-level semantic features from inputs and enhance the data generalization in our general framework. We have conducted extensive experiments and analyses on SCSFusion in M$\rm ^{3}$FD, FMB, and M2DF datasets, respectively. The results indicate that the fused images generated by SCSFusion can not only achieve visually appealing results and superior performance metrics in MIF and IVIF, but also exhibit satisfactory performance in down-stream tasks.
Fields of Study & Subjects
Advanced Image Fusion Techniques
Image Enhancement Techniques
Remote Sensing in Agriculture
Publication details
- Journal / source
- IEEE Transactions on Multimedia
- Volume
- 28
- Pages
- 2705–2718
- Publication date
- 1 January 2026