Virtually all domains of cognitive function require the integration of distributed neural activity.
Network analysis of human brain connectivity has consistently identified sets of regions that …

An increasing number of theoretical and empirical studies approach the function of the
human brain from a network perspective. The analysis of brain networks is made feasible by …

Network studies of large-scale brain connectivity have begun to reveal attributes that
promote the segregation and integration of neural information: communities and hubs …

Functional hubs are brain regions that play a crucial role in facilitating communication
among parallel, distributed brain networks. The developmental emergence and stability of …

Recent evidence suggests that some brain areas act as hubs interconnecting distinct,
functionally specialized systems. These nexuses are intriguing because of their potential …

The human brain is a complex network of interlinked regions. Recent studies have
demonstrated the existence of a number of highly connected and highly central neocortical …

Hubs integrate and distribute information in powerful ways due to the number and
positioning of their contacts in a network. Several resting-state functional connectivity MRI …

Brain regions in the mammalian cerebral cortex are linked by a complex network of fiber
bundles. These inter-regional networks have previously been analyzed in terms of their …

The confluence of new approaches in recording patterns of brain connectivity and
quantitative analytic tools from network science has opened new avenues toward …

Recent advances in functional connectivity methods have made it possible to identify brain
hubs—a set of highly connected regions serving as integrators of distributed neuronal …