Genetically encoded voltage indicators are emerging tools for monitoring voltage dynamics
with cell-type specificity. However, current indicators enable a narrow range of applications …

Monitoring voltage dynamics in defined neurons deep in the brain is critical for unraveling
the function of neuronal circuits but is challenging due to the limited performance of existing …

Monitoring spiking activity across large neuronal populations at behaviorally relevant
timescales is critical for understanding neural circuit function. Unlike calcium imaging …

Widefield imaging with genetically encoded voltage indicators (GEVIs) is a promising
approach for understanding the role of large cortical networks in the neural coding of …

Genetically encoded voltage indicators (GEVIs) are emerging optical tools for acquiring
brain-wide cell-type-specific functional data at unparalleled temporal resolution. To broaden …

Two-photon voltage imaging has long been heralded as a transformative approach capable
of answering many long-standing questions in modern neuroscience. However, exploiting …

Genetically encoded voltage indicators (GEVIs) are a promising technology for fluorescence
readout of millisecond-scale neuronal dynamics. Previous GEVIs had insufficient signaling …

Voltage-sensitive fluorescent proteins (VSFPs) are a family of genetically-encoded voltage
indicators (GEVIs) reporting membrane voltage fluctuation from genetically-targeted cells in …

Optical interrogation of voltage in deep brain locations with cellular resolution would be
immensely useful for understanding how neuronal circuits process information. Here, we …

Genetically encoded voltage indicators (GEVIs) enable monitoring of neuronal activity at
high spatial and temporal resolution. However, the utility of existing GEVIs has been limited …