Diffusion magnetic resonance imaging (dMRI) tractography has yielded intriguing insights
into brain circuits and their relationship to behavior in response to gene mutations or …

Why has diffusion MRI become a principal modality for mapping connectomes in vivo? How
do different image acquisition parameters, fiber tracking algorithms and other …

Various diffusion MRI (dMRI) measures have been proposed for characterising tissue
microstructure over the last 15 years. Despite the growing number of experiments using …

Ex vivo magnetic resonance imaging yields high resolution images that reveal detailed
cerebral anatomy and explicit cytoarchitecture in the cerebral cortex, subcortical structures …

Diffusion tensor imaging (DTI) and resting state temporal correlations (RSTC) are two
leading techniques for investigating the connectivity of the human brain. They have been …

Mesoscale diffusion magnetic resonance imaging (MRI) endeavors to bridge the gap
between macroscopic white matter tractography and microscopic studies investigating the …

Diffusion MRI techniques are used widely to study the characteristics of the human brain
connectome in vivo. However, to resolve and characterise white matter (WM) fibres in …

MRI connectomics methods treat the brain as a network and provide new information about
its organization, efficiency, and mechanisms of disruption. The most commonly used method …

Diffusion-weighted magnetic resonance imaging can be used to non-invasively probe the
brain microstructure. In addition, recent advances have enabled the identification of complex …

Diffusion MRI allows the structural connectivity of the whole brain (the 'tractogram') to be
estimated in vivo non-invasively using streamline tractography. The biological accuracy of …