Brain activity depends on transient interactions between segregated neuronal populations.
While synchronization between distributed neuronal clusters reflects the dynamics of …

Normal brain function requires the dynamic interaction of functionally specialized but widely
distributed cortical regions. Long-range synchronization of oscillatory signals has been …

Assessing the correspondence between spontaneous and stimulus-driven neural activity
can reveal intrinsic properties of the brain. Recent studies have demonstrated that many …

Spatial patterns of coherent activity across different brain areas have been identified during
the resting-state fluctuations of the brain. However, recent studies indicate that resting-state …

The discrepancy between structural and functional connectivity in neural systems forms the
challenge in understanding general brain functioning. To pinpoint a mapping between …

Large-scale networks of phase synchronization are considered to regulate the
communication between brain regions fundamental to cognitive function, but the mapping to …

Synchronization is a collective mechanism by which oscillatory networks achieve their
functions. Factors driving synchronization include the network's topological and dynamical …

Neuronal interactions form the basis for our brain function, and oscillations and synchrony
are the principal candidates for mediating them in the cortical networks. Phase synchrony …

Brain activity relies on transient, fluctuating interactions between segregated neuronal
populations. Synchronization within a single and between distributed neuronal clusters …

As important as the intrinsic properties of an individual nervous cell stands the network of
neurons in which it is embedded and by virtue of which it acquires great part of its …