Théo Vanneau

This study identifies disrupted multisensory processing in autistic children through EEG analysis, showing reduced theta-band connectivity and multisensory integration compared to controls.

This study challenges conventional time-frequency analyses by showing that post-stimulus theta power increases may reflect changes in aperiodic activity rather than genuine oscillations.

This study examines neural dynamics of visuospatial attention in ASD and TD individuals, finding similar leftward attention mechanisms but distinct rightward dynamics in ASD.

This study examines how auditory stimuli modulate the pupil light reflex in autistic and non-autistic children, finding similar cross-modal effects across groups.

The paper examines neural oscillatory dynamics during face processing in autistic children and their unaffected siblings, finding altered theta and gamma activity suggesting differences in neural synchronization.

This study investigates predictive mechanisms in autism using EEG, finding reduced flexibility in anticipatory processes and cognitive updating under varying contextual uncertainty.

This study investigates alpha oscillatory dynamics in autism and familial liability using EEG, finding reduced temporal stability rather than amplitude in alpha rhythms.

This study shows that theta rhythm phase in humans asymmetrically modulates spatial attention, with leftward attention linked to slower theta and posterior alpha-beta activity, while rightward attention involves faster theta and early sensory gain.

This study uses high-density EEG to assess auditory steady-state responses in children with ASD and their siblings, finding reduced low-frequency responses in ASD that may reflect heritable neurophysiological markers.

This study investigates reduced neural entrainment to rhythmic patterns in autism, linking it to impaired temporal flexibility and behavioral responses to variable stimuli.

This study uses EEG to show that switching attention between sensory modalities leads to slower responses and increased cognitive effort, with delayed neural responses and reduced sensory processing efficiency.