Justin F. Schneiderman

This study compares on-scalp and conventional MEG systems, finding that on-scalp MEG better captures early somatosensory activity, including N16 and P23 components, not typically seen in conventional MEG.

This paper benchmarks on-scalp MEG against conventional MEG in an epilepsy patient, showing on-scalp MEG detects more interictal epileptiform discharges.

The paper links spatial suppression in visual motion perception to inhibitory neural responses, showing that gamma response attenuation correlates with individual differences in suppression.

This paper introduces a method for accurately localizing on-scalp MEG sensors relative to the head, improving co-registration and source localization accuracy.

The paper tests two models for visual gamma response suppression by measuring how contrast and velocity affect the transition point of suppression in magnetoencephalography data.

This paper presents a 7-channel on-scalp MEG system using high-Tc SQUIDs, demonstrating its ability to sensitively sample neuromagnetic fields over a 10 cm2 scalp patch.

The paper links individual differences in sensory sensitivity to changes in gamma oscillations during visual stimulation, finding weaker gamma suppression correlates with hypersensitivity.

The paper shows that MEG gamma oscillations in humans exhibit input-dependent modulation, reflecting inhibitory gain control in the visual cortex across development.