Wenchuan Wu

This paper presents high-resolution diffusion MRI techniques for in vivo and ex vivo macaque brain imaging at 10.5 Tesla, enabling detailed connectivity studies.

This paper introduces a stereotaxic container for human brain fixation that enables precise MRI-to-histology alignment during postmortem studies.

The paper develops an RF coil array system for high-resolution in vivo and ex vivo non-human primate brain imaging at 10.5 Tesla, achieving improved spatial resolution and imaging capabilities.

This paper models and corrects motion-induced signal corruption in DW-SSFP diffusion MRI using an extended phase graph framework and provides open-source software for future studies.

This paper evaluates the diffusion-weighted steady-state free precession (DW-SSFP) sequence for ex vivo macaque brain imaging at 10.5T, showing improved SNR efficiency and geometric distortion reduction.

This paper introduces a novel acquisition and reconstruction framework for submillimeter diffusion MRI, achieving high-quality images at 0.53 mm and 0.65 mm resolutions with reduced distortion and improved SNR.

This paper introduces a method to accelerate multi-shell diffusion MRI by using Gaussian process reconstruction, improving image quality and enabling faster scans.

This paper introduces a method to achieve ultra-high temporal resolution 4D angiography using arterial spin labeling with subspace reconstruction, improving spatiotemporal fidelity and temporal resolution.

This paper introduces a subspace-based motion correction method for MRI with varying tissue contrast, improving image quality and correlation with reference images.

This paper introduces an efficient 3D cone trajectory design for improved spatial resolution and repeatability in combined angiographic and perfusion MRI using arterial spin labeling.

This paper develops a single-shot water-fat imaging technique using multi-echo blip-rewound EPI and Dixon-based post-processing, achieving faster and more robust separation of water and fat signals in MRI.

This paper introduces a method to reduce distortion and boundary slice aliasing in 3D diffusion MRI without increasing scan time, achieving high-resolution imaging with improved anatomical fidelity.

This paper improves the robustness of 3D multi-shot EPI for fMRI at 7T by combining a new sampling trajectory with a structured low-rank reconstruction method, achieving improved tSNR and acceleration.

This paper introduces DIPPI, a new MRI technique that estimates the g-ratio per fibre population in crossing voxels, improving myelin quantification in complex white matter regions.

This paper introduces a novel MRI reconstruction method that achieves higher acceleration factors than conventional techniques without loss of resolution.