This work presents a novel approach for the rapid segmentation of clinically relevant subcortical brain structures in T1-weighted MRI by utilizing a shape-constrained deformable surface model.
MRI, by utilizing a blood-oxygenation-level-dependent (BOLD) endogenous contrast mechanism associated with local brain activations, can also reveal spatiotemporal pattern of regional brain function in response to external stimulation in anesthetized animals (referred as functional MRI; fMRI).
By utilizing an innovative rabies virus (RABV -based method, we have RABV -basedssected with unprecedented temethod resolution the precise sequence of synaptic innervation controlling the circuit incorporation of neurons born in the adult brain.
However, by utilizing an integrative approach, this problem is minimized.
Intranasal administration is a noninvasive method to direct protein and peptide drugs into the brain by utilizing the olfactory neuronal distribution pathways in the cribriform plate, which leads to direct nose-to-brain drug distribution, bypasses the blood brain barrier (BBB), and directly guides therapeutics to the brain (Hanson and Frey, 2008; Dhuria et al., 2010).
Drugs delivered through the intranasal route can bypass BBB and reach brain tissues by utilizing the olfactory neuronal pathways in the cribriform plate, which leads to direct nose-to-brain distribution.
It's as if an entirely different part of the brain has been activated, utilizing a different mode of thinking.
Deep Brain Stimulation (DBS) utilizes a surgically implanted probe -- a brain "pacemaker" -- that stimulates brain regions instrumental to Parkinson's disease and depression.
To categorize the perceived objects, brain utilizes a broad set of its resources and encoding strategies.
Most deep brain stimulation techniques utilize a multimodality assessment of the MRI sequences, such as T1-, T2-weighted, FLAIR sequences, followed by use of the atlas.
