The brain is a complex, multiscale dynamical system composed of many interacting regions.
Knowledge of the spatiotemporal organization of these interactions is critical for establishing …

The ability to effectively control brain dynamics holds great promise for the enhancement of
cognitive function in humans and the betterment of their quality of life. Yet, successfully …

In order to maintain brain function, neural activity needs to be tightly coordinated within the
brain network. How this coordination is achieved and related to behavior is largely unknown …

Understanding the underlying dynamical mechanisms of the brain and controlling it is a
crucial issue in brain science. The energy landscape and transition path approach provides …

Neuroscience is home to concepts and theories with roots in a variety of domains including
information theory, dynamical systems theory, and cognitive psychology. Not all of those can …

Functional Connectivity (FC) during resting-state or task conditions is not static but inherently
dynamic. Yet, there is no consensus on whether fluctuations in FC may resemble isolated …

Most human neuroscience research to date has focused on statistical approaches that
describe stationary patterns of localized neural activity or blood flow. While these patterns …

Endogenous cortical fluctuations captured by electroencephalograms (EEGs) reflect activity
in large-scale brain networks that exhibit dynamic patterns over multiple time scales …

Connectome-based modeling of large-scale brain network dynamics enables causal in
silico interrogation of the brain's structure-function relationship, necessitating the close …

Brain dynamics depicts an extremely complex energy landscape that changes over time,
and its characterisation is a central unsolved problem in neuroscience. We approximate the …