Vicente Parot

The paper develops tools for large-scale all-optical electrophysiology to study neural circuit dynamics, excitability, and connectivity in vivo.

This study develops optogenetic tools to control Nodal signaling patterns in zebrafish embryos, enabling precise spatial manipulation of signaling activity and rescue of developmental defects.

The paper introduces improved genetically encoded voltage indicators for all-optical electrophysiology, revealing interneuron network dynamics in live mice.

All-optical electrophysiology in awake mice reveals inhibitory microcircuit function in barrel cortex Layer 1 by combining voltage recording with optogenetic manipulation.

The paper develops all-optical electrophysiology tools to record subthreshold dynamics and excitability in mouse hippocampus during behavior, revealing brain-state dependent changes in neuronal activity.

The paper develops tools for wide-area mapping of neuronal activity in brain slices using optimized optogenetic tools and structured illumination.