Maureen A. Hagan

The paper investigates how efference copy affects motion perception during smooth pursuit by analyzing perceptual and oculomotor responses to speed perturbations.

The paper uses a GLM to separate visual and oculomotor signals in marmoset LIP during rapid saccadic tasks, revealing distinct sensory and motor encoding.

The paper shows that variability in sensory neural populations contributes to motor variability in oculomotor tasks, but traditional models poorly predict behavioral variations.

This study examines ocular following responses in marmosets, showing effects of post-saccadic delay, spatiotemporal frequency, and saccade direction on eye speed and latency, with results comparable to humans and macaques.

The paper investigates inhibitory communication between brain regions during coordinated looking and reaching, finding that beta-frequency neural coherence transiently suppresses neuronal firing in one region to improve reach accuracy.

This study investigates neural responses to broadband visual flicker in marmoset primary visual cortex, finding frequency-selective responses in awake animals that differ from human EEG studies.

The paper shows that beta-band spike-LFP synchronization in marmoset monkeys' primary visual cortex encodes stimulus information based on orientation preference similarity.

This study investigates how optogenetic stimulation drives coherent neuronal dynamics in non-human primates by analyzing excitatory-inhibitory temporal windows.

This study examines changes in MT neuron sensitivity to motion after long-term V1 lesions in marmosets, finding reduced direction selectivity and increased firing variability.

The paper investigates how neuronal correlations in MT and MST areas affect motion direction decoding, finding that accounting for correlations improves decoding performance.

This study investigates whether auditory motion modulates spiking activity in visual motion areas of the primate brain and finds no such modulation at the single neuron level.

This study measures MT neuron sensitivity to random dot motion in marmoset monkeys and finds their thresholds are comparable to macaques, with firing rate differences predicting sensitivity.