Jude F. Mitchell

The paper shows fixational eye movements in marmosets significantly contribute to neuronal variability and enhance spatial information in visual cortex.

The paper investigates saccadic suppression in marmoset MT/MTC neurons, finding diverse responses including suppression, excitation, and bi-phasic patterns, with some neurons discounting saccade-related motion.

This study investigates how natural gaze behavior influences V1 activity in freely moving marmosets, showing that gaze shifts and fixations modulate neural responses through distinct mechanisms.

The paper develops an optogenetic method to selectively excite and inhibit projection-specific neurons in marmosets, enabling precise modulation of neural circuits.

This study quantifies the oculomotor range of head-fixed common marmosets using naturalistic stimuli, finding limited changes compared to previous studies.

The paper compares distractibility between marmosets and macaques in cognitive tasks and links it to dopamine D1 receptor expression in prefrontal parvalbumin neurons.

This paper develops a wireless head-mounted eye-tracking system for marmosets to study active vision in freely moving primates and finds that gaze stability is higher in free movement compared to head-fixed conditions.

This study examines pre-saccadic neural enhancements in marmoset area MT during saccade foraging tasks, finding uniform tuning changes across motion directions, similar to covert attention effects.

This study investigates how neurons in mouse and marmoset V1 respond to gaze shifts, revealing a dynamic sequence of activity linked to visual sampling.

This study examines marmoset reach-to-grasp movements for dynamic prey, finding very short visuo-motor delays and visual prediction compensating for these delays during fast reaching.

The paper examines post-saccadic smooth eye movements (PFR) in marmosets to measure target motion and pre-saccadic neural enhancements, finding PFR correlates with human behavior and provides insights into visual processing.

This study shows that unconscious visual processing for automatic eye movements is not recovered by perceptual restoration in V1-damaged patients.

This paper characterizes neural selectivity in free-viewing primates, showing that receptive fields and tuning properties can be recovered from multiple cortical areas using natural behavior and high-precision eye tracking.

This study quantifies motion perception in marmosets and compares it to humans, finding similar speed-accuracy trade-offs but shorter non-decision times in marmosets.