Audrey Dureux

This study tracks how striatal α-synuclein seeding affects brain networks and cognitive flexibility in marmosets, showing multi-scale reorganization and impaired cognitive flexibility.

This study uses movie-driven fMRI to compare functional brain networks between humans and marmosets, finding conserved sensory networks but species-specific higher-order cognition networks.

The paper investigates how marmoset brains process temporal structure in vocalizations using fMRI, finding context-sensitive neural networks that evaluate sequence coherence.

The paper provides open-access CAD files and software for marmoset neuroscience apparatus, reducing the need for individual lab development.

The paper shows different marmoset vocalizations activate distinct neural networks in the brain, suggesting specific processing for each call type.

This study compares vocal processing networks in humans and marmosets using fMRI, revealing shared and species-specific auditory pathways for vocalization processing.

This study uses movie-driven fMRI to identify homologous functional brain networks in marmosets and humans, revealing shared neurofunctional architecture across species.

This study uses ultra-high field fMRI to examine brain responses to facial and vocal stimuli in marmosets, showing enhanced multisensory integration involving broader neural networks.

This study compares gaze patterns and brain activations in humans and marmosets during ToM and Random Frith-Happe animations, finding similar processing differences.

This study identifies a fronto-temporal vocalization-processing network in marmosets using fMRI, suggesting it is ancestral to the human language network.

This study identifies a cortico-subcortico-cerebellar network activated by dynamic facial expressions in marmosets, with negative faces increasing respiration and neural activity in key brain regions.

This study identifies an action-observation network in common marmosets using ultra-high field fMRI, showing overlap with human and macaque networks.

This study shows that anaesthesia disrupts the rostro-caudal functional gradient in the cingulo-frontal network of macaques, which is preserved in the awake state and similar to humans.