Emiel Cracco

The paper develops and validates a time-resolved EEG frequency-tagging task to measure self-preferential processing of the own name, finding a self-preferential effect using this novel approach.

The paper uses EEG frequency tagging to show that less similar observed actions are more integrated in the brain, suggesting integration-by-dissimilarity resolves conflicts in complex social scenes.

This study investigates whether autism traits affect top-down biological motion perception, finding no difference in temporal integration but a difference in perceptual focus between high and low autism trait groups.

The paper investigates how dynamic cues like synchrony and common fate influence the perception of biological group movements, finding that synchrony enhances grouping while common fate does not.

This study shows that pairing visual stimuli with transcranial magnetic stimulation (TMS) of the motor cortex can create stimulus-response associations that influence behavior, with effects dependent on TMS intensity and timing.

The paper investigates neural responses to third-party social interactions in adults with and without autism using EEG frequency tagging, finding no difference in social interaction recognition between groups.

This study investigates how objecthood and animacy affect movement and posture processing using EEG frequency tagging, finding that movement processing depends on objecthood but not animacy, while posture processing depends on both.

The paper introduces EEG movement tagging to objectively measure biological motion perception, showing distinct brain responses at different frequencies related to global and local processing.

The paper uses EEG frequency tagging to show that the brain preferentially entrains to collective movement of human agents, enhancing responses to synchronous motion over individual or image-based motion.

This study investigates the neural correlates of spontaneous theory of mind using fMRI mega-analysis, finding activation in posterior parietal cortex and visuospatial regions, but not medial prefrontal cortex.

This study shows the motor system can represent multiple observed actions through fMRI, revealing a mechanism for processing social interactions.