We present a novel method for higher order reconstruction of fetal diffusion MRI signal that enables detection of fiber crossings. We combine data-driven motion and intensity correction with super-resolution reconstruction and spherical harmonic parametrisation to reconstruct data scattered in both spatial and angular domains into consistent fetal dMRI signal suitable for further diffusion analysis. We show that intensity correction is essential for good performance of the method and identify anatomically plausible fiber crossings. The proposed methodology has potential to facilitate detailed investigation of developing brain connectivity and microstructure in-utero
International audienceObjective: Diffusion imaging techniques such as DTI and HARDI are difficult to...
Diffusion imaging is an MRI modality that measures the microscopic molecular motion of water in orde...
Diffusion imaging is an MRI modality that measures the microscopic molecular motion of water in orde...
We present a novel method for higher order reconstruction of fetal diffusion MRI signal that enables...
Diffusion Magnetic Resonance Imaging (dMRI) has become widely used to study in vivo white matter tis...
Thesis (Master's)--University of Washington, 2015Diffusion-weighted MRI brings new and complimentary...
In this paper we present a method for reconstructing diffusion-weighted MRI data on regular grids fr...
In utero diffusion magnetic resonance imaging (MRI) provides unique opportunities to noninvasively s...
We propose a method for the reconstruction of volumetric fetal MRI from 2D slices, comprising super-...
We propose a method for the reconstruction of volumetric fetal MRI from 2D slices, comprising super-...
Nonrigid registration of diffusion magnetic resonance imaging (MRI) is crucial for group analyses an...
We present Local Spherical Deconvolution (LSD), a diffusion MRI deconvolution method to reconstruct ...
A new rotation-invariant spherical harmonic decomposition (SHD) method is proposed in this paper for...
Imaging in the presence of subject motion has been an ongoing challenge for magnetic resonance imagi...
International audienceIn this article we develop a new method to segment high angular resolution dif...
International audienceObjective: Diffusion imaging techniques such as DTI and HARDI are difficult to...
Diffusion imaging is an MRI modality that measures the microscopic molecular motion of water in orde...
Diffusion imaging is an MRI modality that measures the microscopic molecular motion of water in orde...
We present a novel method for higher order reconstruction of fetal diffusion MRI signal that enables...
Diffusion Magnetic Resonance Imaging (dMRI) has become widely used to study in vivo white matter tis...
Thesis (Master's)--University of Washington, 2015Diffusion-weighted MRI brings new and complimentary...
In this paper we present a method for reconstructing diffusion-weighted MRI data on regular grids fr...
In utero diffusion magnetic resonance imaging (MRI) provides unique opportunities to noninvasively s...
We propose a method for the reconstruction of volumetric fetal MRI from 2D slices, comprising super-...
We propose a method for the reconstruction of volumetric fetal MRI from 2D slices, comprising super-...
Nonrigid registration of diffusion magnetic resonance imaging (MRI) is crucial for group analyses an...
We present Local Spherical Deconvolution (LSD), a diffusion MRI deconvolution method to reconstruct ...
A new rotation-invariant spherical harmonic decomposition (SHD) method is proposed in this paper for...
Imaging in the presence of subject motion has been an ongoing challenge for magnetic resonance imagi...
International audienceIn this article we develop a new method to segment high angular resolution dif...
International audienceObjective: Diffusion imaging techniques such as DTI and HARDI are difficult to...
Diffusion imaging is an MRI modality that measures the microscopic molecular motion of water in orde...
Diffusion imaging is an MRI modality that measures the microscopic molecular motion of water in orde...