Niceto R. Luque

This study models the inferior olive network to show that phase-locking of subthreshold oscillations to retinal slip signals is necessary for cerebellar VOR learning and improves adaptation through increased network variability.

This study investigates how spinal cord dynamics influence cerebellar motor learning and control using computational models of the cerebellum and spinal cord integrated into a musculoskeletal control loop.

This study models cerebellar mechanisms underlying age-related stability in VOR function, finding homeostatic plasticity compensates for structural declines.

This paper uses a spiking cerebellar model to show how Purkinje cell burst-pause dynamics regulate vestibular ocular reflex adaptation and learning.