Detecting neural oscillations in time and frequency domains enables the detailed study of spatiotemporal dynamics of oscillations throughout the brain and the investigation of biomarkers that index functional brain areas.

The strongest peak frequency of brain oscillations in a brain area decreases significantly, gradually and robustly along the posterior-anterior axis following the global hierarchy from early sensory to higher order areas.

Increased theta/alpha band activities within the habenula area and the prefrontal cortex, as well as the increased synchrony between the two structures in the same frequency band can serve as an indicator for negative emotions in humans.

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

Alpha EEG oscillations emerge at 4 months of age during sevoflurane general anesthesia, and unlike in adults, have a widespread spatial distribution that likely reflects differences in brain development.

Stimulating one side of parietal cortex using an appropriate frequency of alternating current interferes with attention to a sound stream from a location on the opposite side of a space.

Prospective navigational goals are represented by single neuron firing rates and firing relative to slow oscillatory phase (phase coding) in the human medial temporal lobe.

Direct electrophysiological evidence demonstrates a role for the anterior thalamic nucleus in human memory formation.

Invasively recorded cortical beta oscillations form whole-brain structural and functional networks that are modulated by dopamine.

Human intracranial electroencephalographic recordings reveal the electrophysiological properties and hierarchical organization of spontaneous neuronal oscillations in the human insula and show that these oscillations are traveling waves, thus providing new insights into intrainsular and interinsular communication.