We are continuously bombarded by external inputs of various timescales from the
environment. How does the brain process this multitude of timescales? Recent resting state …

The anatomy of the brain necessarily constrains its function, but precisely how remains
unclear. The classical and dominant paradigm in neuroscience is that neuronal dynamics …

Healthy brain function depends on balancing stable integration between brain areas for
effective coordinated functioning, with coexisting segregation that allows subsystems to …

Scale-free physiological processes are ubiquitous in the human organism. Resting-state
functional MRI studies observed the loss of scale-free dynamics under anesthesia. In …

Many of the amazing functional capabilities of the brain are collective properties stemming
from the interactions of large sets of individual neurons. In particular, the most salient …

Graph theory is now becoming a standard tool in system-level neuroscience. However,
endowing observed brain anatomy and dynamics with a complex network structure does not …

Recent human studies using electrocorticography have demonstrated that alpha and theta
band oscillations form traveling waves on the cortical surface. According to neural …

Synchronization of the dynamic processes in structural networks connect the brain across a
wide range of temporal and spatial scales, creating a dynamic and complex functional …

We derive the Kuramoto model (KM) corresponding to a population of weakly coupled,
nearly identical quadratic integrate-and-fire (QIF) neurons with both electrical and chemical …

The human brain is a highly dynamic organ that operates across a variety of timescales, the
intrinsic neural timescales (INT). In addition to the INT, the neural waves featured by its …