VEMamba: Efficient Isotropic Reconstruction of Volume Electron Microscopy with Axial-Lateral Consistent Mamba
Longmi Gao, Pan Gao

TL;DR
VEMamba is a novel framework that improves isotropic reconstruction of volume electron microscopy data by intelligently reordering 3D dependencies and adaptively aggregating features, resulting in better quality and efficiency.
Contribution
It introduces a new 3D Dependency Reordering paradigm with modules for axial-lateral consistency and adaptive feature aggregation, advancing isotropic VEM reconstruction.
Findings
Achieves competitive reconstruction quality on simulated and real datasets.
Maintains lower computational footprint compared to existing methods.
Effectively incorporates degradation-aware learning for improved results.
Abstract
Volume Electron Microscopy (VEM) is crucial for 3D tissue imaging but often produces anisotropic data with poor axial resolution, hindering visualization and downstream analysis. Existing methods for isotropic reconstruction often suffer from neglecting abundant axial information and employing simple downsampling to simulate anisotropic data. To address these limitations, we propose VEMamba, an efficient framework for isotropic reconstruction. The core of VEMamba is a novel 3D Dependency Reordering paradigm, implemented via two key components: an Axial-Lateral Chunking Selective Scan Module (ALCSSM), which intelligently re-maps complex 3D spatial dependencies (both axial and lateral) into optimized 1D sequences for efficient Mamba-based modeling, explicitly enforcing axial-lateral consistency; and a Dynamic Weights Aggregation Module (DWAM) to adaptively aggregate these reordered…
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Taxonomy
TopicsAdvanced Electron Microscopy Techniques and Applications · Electron and X-Ray Spectroscopy Techniques · Mathematical Approximation and Integration
