White matter (WM) neuroplasticity in the human brain has been tracked non-invasively using
advanced magnetic resonance imaging techniques, with increasing evidence for improved …

Magnetic resonance imaging (MRI) studies are sensitive to biological mechanisms of
neuroplasticity in white matter (WM). In particular, diffusion tensor imaging (DTI) has been …

Experience‐dependent structural changes are widely evident in gray matter. Using diffusion
weighted imaging (DWI), the neuroplastic effect of motor training on white matter in the brain …

Numerous studies have noted the importance of white matter changes in motor learning, but
existing literature only focuses on structural and microstructural MRI changes, as there are …

Learning a novel motor skill is associated with well characterized structural and functional
plasticity in the rodent motor cortex. Furthermore, neuroimaging studies of visuomotor …

Efficient neural transmission is crucial for optimal brain function, yet the plastic potential of
white matter (WM) has long been overlooked. Growing evidence now shows that …

Brain white matter (WM) could be generally categorized into two types, deep and superficial
WM. Studies combining these two types WM are important for a better understanding of …

From observations in rodents, it has been suggested that the cellular basis of learning-
dependent changes, detected using structural MRI, may be increased dendritic spine …

With the advent of diffusion tensor imaging (DTI), the study of plastic changes in white matter
architecture due to long-term practice has attracted increasing interest. Professional …

White matter (WM) plasticity supports skill learning and memory. Up-and downregulation of
brain activity in animal models lead to WM alterations. But can bidirectional brain-activity …