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DDMamba: A Dual-Domain Mamba for Multi-Modal Magnetic Resonance Imaging Reconstruction With Fourier Fusion
Zhijin Lin1, Jie Yang2, Teng Yu1
1College of Electronics and Information, Qingdao University, Qingdao, China.
Purpose:
Although reconstruction using shared information between multi-modal magnetic resonance (MR) images has shown promising results, there remains a need to develop new methods for achieving more efficient and reliable MRI reconstruction.
Methods:
A Dual-domain Mamba Network (DDMamba) for multi-modal MRI reconstruction with Fourier fusion is proposed to solve the problem of reconstructing MR images that have been significantly under-sampled. DDMamba includes three key modules: Spatial Mamba, Wavelet Mamba, and Fourier fusion. Spatial Mamba refines the spatial information of input features through a multi-scale feature extraction block, providing richer spatial features for the state space model. Wavelet Mamba introduces a novel scanning strategy, namely, Wavelet 2D-Selective-Scan, which establishes dependency relationships from low to high frequencies. The Fourier domain operation uses global characteristics to enhance spatial and wavelet information fusion.
Results:
Extensive experiments conducted on public data sets, NAMIC, BraTS, and fastMRI, have demonstrated the superior performance of the proposed method in multi-modal MRI reconstruction. Notable improvements are observed in both quantitative metrics and visualizations of the proposed method when compared to state-of-the-art approaches.
Conclusion:
The proposed Dual-domain Mamba network integrates spatial and wavelet domain features through Fourier fusion, effectively optimizing multi-feature representation. This method significantly enhances the reconstruction of multi-modal single-coil MRI, addressing the demand for efficient and reliable imaging solutions in clinical practice.
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