For several years it has been argued that neural synchronisation is crucial for cognition. The
idea that synchronised temporal patterns between different neural groups carries …

The topic of functional connectivity in neuroimaging is expanding rapidly and many studies
now focus on coupling between spatially separate brain regions. These studies show that a …

Determining the dynamics of functional connectivity is critical for understanding the brain.
Recent functional magnetic resonance imaging (fMRI) studies demonstrate that measuring …

Over the past two decades, the increased ability to analyze network relationships among
neural structures has provided novel insights into brain function. Most network approaches …

The human brain can be divided into multiple areas, each responsible for different aspects
of behaviour. Healthy brain function relies upon efficient connectivity between these areas …

Magnetoencephalography has gained an increasing importance in systems neuroscience
thanks to the possibility it offers of unraveling brain networks at time-scales relevant to …

The discovery of a stable, whole-brain functional connectivity organization that is largely
independent of external events has drastically extended our view of human brain function …

Over the past decade, networks have become a leading model to illustrate both the
anatomical relationships (structural networks) and the coupling of dynamic physiology …

Electroencephalogram (EEG) and magnetoencephalogram (MEG) recordings during resting
state are increasingly used to study functional connectivity and network topology. Moreover …

The characterisation of dynamic electrophysiological brain networks, which form and
dissolve in order to support ongoing cognitive function, is one of the most important goals in …