Humans showed the most widespread asymmetric connectivity between the inferior parietal lobule subregions and the rest of the brain compared to macaques and chimpanzees, which shapes hemispheric specialization in primates.

Lateral asymmetry of the globus pallidus, caudate nucleus, and thalamus can predict attention-related modulations of posterior alpha oscillations when combining structural MRI with MEG.

Human brain suggests an asymmetric organization along a functional cortical axis describing a hierarchical functional trajectory from perceptual/action to abstract cognition, which is heritable and comparable with macaque brain, suggesting (phylo)genetic conservation and adaptation.

The important role of structural asymmetry in the functional lateralization of the same brain area provides a crucial insight into the neurobiological fundament for human brain's functional lateralization.

In addition to the well-established involvement of descending neural tracts, the left-right side-specific endocrine mechanism may contribute to signaling from injured brain to spinal motor circuits.

An electrode-wise encoding model based on physiological recordings from the cortical surface revealed a striking hemispheric asymmetry where the encoding of ipsilateral movement was stronger in the left hemisphere compared to the right hemisphere.

Building on previous work (Makin et al., 2013), we show that the brains of individuals born without a hand adaptively change to compensate for their disability.

Openly available structural imaging processing pipeline for chimpanzees including registration templates and macro-anatomical parcellation shows human-like cerebral aging and medial hemispheric organization.

Brain asymmetry in cortical surface area shows lifespan stability from early childhood to old age and is more underpinned by genetic differences, whereas asymmetry in cortical thickness grows through childhood and adolescence and is minimally explained by genetics.

Gene expression asymmetries in fetal spinal cord are triggered by epigenetic mechanisms suggesting that handedness has a spinal instead of a cortical origin.