Non-invasive manipulation of endogenously coupled neural rhythms enhances human control of social-emotional actions.

Cross-frequency synchronization of neuronal oscillations in visual and attentional brain systems predicts human working memory performance.

Bradykinesia in Parkinson's disease may be associated to a dopamine-dependent recruitment failure of subthalamic activity in short bursts of gamma synchrony.

Brain imaging reveals frequency-dependent lateralized rhythmic finger tapping control by the auditory cortex with left-lateralized control of relative fast and right-lateralized control of relative slow rhythms.

Changing brain state using feedback from transcranial magnetic stimulation, by training participants to increase or decrease how excitable their motor pathways are.

Response inhibition is initiated by the right inferior frontal gyrus (rIFG), and stopping performance is predicted by beta-band power as well as beta-band connectivity between rIFG and pre-supplementary motor area.

Advanced machine learning based brain signal decoding of grip-force as a proxy for movement vigor shows Parkinson's disease related performance reduction, suggestive of a loss of cortical vigor encoding in the absence of dopamine.

Comparison between tapping performance of humans during a synchronization task and new metrics that characterize the U-fiber system of white matter revealed large intersubject correlations between phase accuracy at specific tempos and the strength of connectivity in their audiomotor system.

Burst activity can be described in all three signal domains and sensorimotor beta burst activity propagates along two axes either parallel or perpendicular to the central sulcus.