Robert David Sanders

This study compares brain activity during dexmedetomidine and propofol anesthesia to natural sleep using iEEG, finding dexmedetomidine more similar to sleep in certain metrics.

The paper shows that traveling waves in the brain carry prediction signals and mismatch information, enabling trial-by-trial updates of predictive models.

The paper uses inverted neural mass models to link electrophysiological signatures of awareness to thalamocortical mechanisms across arousal states.

The paper shows that predictive feedback and fast responses to stimuli depend on NMDA receptors, using EEG, Bayesian modeling, and machine learning in an audio-visual task.

This study examines how dexmedetomidine sedation depth affects cortical excitability, finding non-linear changes and region-specific effects.

This study examines how lipopolysaccharide (LPS) affects electrophysiological activity in mice, linking inflammation to changes in slow wave activity and potential delirium mechanisms.

This study shows propofol reduces evoked power and impairs feedforward connectivity in the cortical hierarchy during TMS.