Charles E. Schroeder

The paper shows how recording geometry affects the representation of cortical activity through biophysical modeling and experimental recordings.

This study shows that TMS intensity modulates low-frequency LFP power and connectivity in non-human primates, with initial connectivity enhancement scaling with TMS intensity.

The paper investigates how transient high-frequency neural events contribute to sensory representation by analyzing their temporal, spectral, and phase properties across trials.

This paper introduces tools to optimize electrode placement and maximize information capacity for local field potentials in the cortex using subject-specific modeling.

This paper evaluates the universality and reliability of a spectrolaminar motif in primate neocortex, finding it not universal and methods unreliable.

This study shows that attention modulates hippocampal sharp-wave ripples in humans, with higher frequency during high attention and increased phase synchrony during low attention.

The paper applies a VARX model to intracranial recordings to separate intrinsic brain dynamics from external stimuli, finding that intrinsic dynamics enhance and prolong neural responses to sensory inputs.

This study investigates the direct and peripheral effects of TMS in non-human primates using invasive recordings, showing dose-dependent responses and spatial specificity.

The paper introduces an open-access dataset combining EEG and fMRI data from naturalistic viewing tasks to study brain function and preprocessing methods.

The paper examines how semantic novelty modulates neural responses to visual changes like film cuts and saccades across the human brain using intracranial recordings.

The paper describes an immersive paradigm for studying natural social behavior and its neural correlates in epilepsy patients using synchronized behavioral and neurophysiological data.

The paper measures the spatial reach of neuronal coherence and spike-field coupling in human neocortex during cognitive tasks, finding a consistent 2-3 cm effective range for local communication.

The paper shows that low-frequency oscillations in the human cerebral cortex are linked to delayed inter-regional couplings during auditory tasks.

This study shows saccades modulate oscillatory activity in primary auditory cortex across all layers, with theta and alpha band phase resets in extragranular layers.

The paper investigates how spontaneous neural oscillations affect behavior and sensory processing by modulating neuronal excitability during an auditory task.

The paper develops a transfer-learning U-Net model for brain extraction in non-human primates using human data, achieving better performance than traditional methods and popular MRI packages.

This study shows that broadband high-frequency activity (BHA) dissociates from multiunit activity (MUA) in primary visual and auditory cortex, with BHA originating from both neuronal firing and dendritic processes.

The paper investigates saccadic modulation of neural activity in the human anterior thalamus during visual active sensing, finding phase concentration and suppression of high-frequency activity.

This study investigates the electric field dynamics during multi-electrode transcranial electric stimulation in non-human primates, revealing nonlinear dependencies and a novel traveling wave phenomenon.

The paper examines how neural responses to time-compressed speech vary across auditory brain regions and relates these responses to speech intelligibility.

This study establishes data and scanning conditions for reproducible, stable, and internally valid areal parcellations in non-human primates using fMRI.

The paper introduces PRIME-DE, an open resource for non-human primate MRI data, aggregating 13 datasets from 11 sites across 98 macaques.

The paper shows that saccade-related transients are suppressed in higher-level visual cortex but not early visual cortex in humans.

This study measures the spatiotemporal electric fields induced by transcranial electric stimulation in humans and nonhuman primates using implanted electrodes, revealing field strength and distribution patterns.