🧠My research focuses on understanding how the human brain develops during the earliest stages of life — from the fetal period through infancy and toddlerhood. I combine tools from network control theory, connectomics, and machine learning to investigate the emergence and maturation of brain network architecture.
I use control-theoretic frameworks to characterize how structural brain networks in neonates and fetuses can drive transitions between neural states. This work has revealed how controllability properties of white-matter networks at birth predict later social and language outcomes.
I develop computational models to predict brain age from neonatal connectomes and identify deviations from normative developmental trajectories. These deviations relate to maternal factors and predict later cognitive performance.
My recent work explores how fetal network controllability co-develops with synaptic density and synchronizes with maternal brain controllability during pregnancy, bridging prenatal neurobiology with postnatal developmental outcomes.