Daniel Gutierrez‐Barragan

This study shows that endogenous oxytocin alters brain network dynamics, increasing salience-related network states and decreasing sensory-dominated states in mice.

The paper develops a whole-cortex model of resting-state fMRI activity in mice, showing that attractor dynamics explain the emergence and structure of co-activation patterns (CAPs) through anatomical connectivity.

This study uses computational whole-brain modeling to show that competitive interactions in mammalian connectomes enhance computational capacity and fit brain dynamics better than cooperative-only models.

The paper identifies evolutionarily conserved dynamic fMRI network patterns across mouse, macaque, and human brains using frame-wise clustering of time-series data.

This study shows that complement signaling via C3r is critical for perinatal neuronal elimination but not synaptic pruning in the developing brain.

The paper compares information transmission patterns in human, macaque, and mouse brains, finding that humans use parallel pathways while other mammals use single pathways.

The paper shows that silencing the prefrontal cortex paradoxically increases resting-state fMRI connectivity with its thalamo-cortical terminals.

This study investigates spatiotemporal dynamics of spontaneous brain activity in awake mice using resting-state fMRI, finding unique patterns distinct from anesthetized states.

This study investigates how xanomeline, an M1/M4 agonist, affects brain functional connectivity in mice using phMRI, rsfMRI, and qEEG, showing both direct and modulatory effects on neural activity and connectivity.

The paper maps spatiotemporal dynamics of resting-state fMRI activity in mice, revealing recurring brain states with oscillatory dynamics and altered states in autism-associated genetic alterations.