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Abstract Fusion of infrared and visible images amalgamates their respective advantages while circumventingtheir drawbacks, thereby retaining the intricate details present in the visible spectrum and augment-ing the thermal radiation information inherent in the infrared domain. However, few studies havefocused on the balance between algorithm speed and fused image quality in complex lighting condi-tions, which is critical for downstream tasks. To this end, we propose An infrared and visible imagesfusion method based on structural reparameterization, named SRFusion. The method innovativelyintegrates a Structural Reparameterization Module (SRM), adeptly extracting and processing featuresfrom the input images with exceptional efficiency. The methodology bifurcates the extracted featuresinto distinct components, which are then recombined through a sequence of convolutional operationsto produce a fused image. Notably, the SRM operates with a multi-branch architecture during thetraining phase, optimizing performance, and transitions to a streamlined, branch-free topology forinference, enhancing computational efficiency. A comparative analysis with the most advanced fusionmethods has demonstrated that SRFusion not only achieves the SOTA performance on most metricsof fusion image, but also delivers a more intricate level of detail and a better visual perception for human.
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Hu et al. (2024) studied this question.
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