Mario Quarantelli

The paper examines how structural brain connectivity influences the initiation and termination of neuronal avalanches using MEG and dMRI data from healthy individuals.

The paper analyzes neuronal avalanche dynamics in resting-state MEG data to show temporal persistence and structural organization in brain activity.

The paper introduces a new measure, flexibility gradient, to quantify regional contributions to brain flexibility and finds that structural properties correlate with regional flexibility contributions across multiple modalities.

The paper investigates how structural brain connections enable diverse dynamic patterns by testing if neuronal activity near a critical regime explains structural-functional relationships.

The paper shows that brain timescales dynamically shift between back-to-front and front-to-back gradients based on non-local interactions.

This study investigates how structural brain connections constrain fast neural dynamics using MEG and diffusion MRI data, finding a significant association between structural connectivity and neuronal avalanche spread.

The paper introduces a method to estimate functional transmission delays in the brain using in vivo measurements and structural connectome data, showing that larger bundles have faster velocities and delays are greater in multiple sclerosis patients.