Peter Jes Kohler

The paper shows that intention to perceive motion in ambiguous stimuli pre-activates motion-related neural representations in dorsal visual areas before perception occurs.

This study compares neural dynamics during grasping and placing tasks using EEG, finding shared cortico-cerebellar mechanisms with distinct spatiotemporal patterns.

This study compares symmetry perception dynamics between marmosets and humans using non-invasive electrophysiology, finding conserved fast processing but reduced sustained processing in marmosets.

The paper investigates how symmetry type and texture regularity affect visual search efficiency using a lattice-based paradigm.

This study investigates how damage to primary somatosensory cortex affects motor networks in humans, showing altered activation in subcortical areas and potential reorganization of motor function.

The paper shows that visual and auditory brain areas use shared representational structures for emotion perception, supporting crossmodal comparison of music and movement.

This study re-examines symmetry processing in macaques using fMRI, finding cortical responses comparable to humans, suggesting macaques as a relevant model for studying symmetry at the microscopic level.

The paper investigates how the human visual system processes 2D pattern symmetries by analyzing brain activity and behavior across all 17 wallpaper groups, finding a preserved hierarchy of complexity.

The paper shows that slow SSVEP stimulation rates can reveal parietal cortex involvement in abstract numerosity processing, with stronger responses to suprathreshold number changes.

This study uses frequency-tagged EEG to show that numerosity is independently processed in visual cortex, distinct from continuous magnitudes like total area and convex hull.

The paper investigates how human visual cortex processes relative motion and disparity cues for image segmentation, finding retinotopic organization and attentional modulation in early visual areas and candidate regions for cue integration.

The paper shows that inter-ocular motion differences suppress neural responses in human visual cortex, indicating relational spatial cues play a key role in binocular processing.

The paper investigates how the human visual system represents symmetry in natural scenes using SSVEPs and finds that neural responses reflect the mathematical hierarchy of wallpaper groups.