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Author Spotlight: An Efficient and Robust Software for Automated Fusion of Multiple Preclinical Imaging Modalities
Published on: October 27, 2023
CMMDL: Cross-modal multi-domain learning method for image fusion
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The rapid development of deep learning provides an excellent solution for end-to-end multi-modal image fusion. However, existing methods mainly focus on the spatial domain and fail to fully utilize valuable information in the frequency domain. Moreover, even if spatial domain learning methods can optimize convergence to an ideal solution, there are still significant differences in high-frequency details between the fused image and the source images. Therefore, we propose a Cross-Modal Multi-Domain Learning (CMMDL) method for image fusion. Firstly, CMMDL employs the Restormer structure equipped with the proposed Spatial-Frequency domain Cascaded Attention (SFCA) mechanism to provide comprehensive and detailed pixel-level features for subsequent multi-domain learning. Then, we propose a dual-domain parallel learning strategy. The proposed Spatial Domain Learning Block (SDLB) focuses on extracting modality-specific features in the spatial domain through a dual-branch invertible neural network, while the proposed Frequency Domain Learning Block (FDLB) captures continuous and precise global contextual information using cross-modal deep perceptual Fourier transforms. Finally, the proposed Heterogeneous Domain Feature Fusion Block (HDFFB) promotes feature interaction and fusion between different domains through various pixel-level attention structures to obtain the final output image. Extensive experiments demonstrate that the proposed CMMDL achieves state-of-the-art performance on multiple datasets. The code is available at: https://github.com/Ist-Zhy/CMMDL.
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