AbstractGenetically encoded voltage indicators (GEVIs) can report cellular electrophysiology with high resolution in space and time. Two-photon (2P) fluorescence has been explored as a means to image voltage in tissue. Here, we used the 2P electronic excited-state lifetime to probe absolute membrane voltage in a manner that is insensitive to the protein expression level, illumination intensity, or photon detection efficiency. First, we tested several GEVIs for 2P brightness, response speed, and voltage sensitivity. ASAP1 and a previously described citrine-Arch electrochromic Förster resonance energy transfer sensor (dubbed CAESR) showed the best characteristics. We then characterized the voltage-dependent lifetime of ASAP1, CAESR, and ArcLi...
Unravelling the immense complexity of the human brain requires the ability to selectively interfere ...
International audienceGenetically encoded voltage indicators are emerging tools for monitoring volta...
As a “holy grail” of neuroscience, optical imaging of membrane potential could enable high resolutio...
AbstractGenetically encoded voltage indicators (GEVIs) can report cellular electrophysiology with hi...
AbstractPlasma membrane voltage is a fundamentally important property of a living cell; its value is...
Membrane potential (Vmem) is a voltage across the plasma membrane of all cells, arising from differe...
Membrane potential (Vmem) is a voltage across the plasma membrane of all cells, arising from differe...
Voltage imaging is a tried and tested tool for revealing changes in neuronal membrane voltage at hig...
AbstractPlasma membrane voltage is a fundamentally important property of a living cell; its value is...
Plasma membrane voltage is a fundamentally important property of a living cell; its value is tightly...
Photoactivated genetically encoded voltage indicators (GEVIs) have the potential to enable optically...
Optical methods that rely on fluorescence for mapping changes in neuronal membrane potential in the ...
AbstractBackground: Fluorescence detection of cell membrane potentials is an important technique in ...
Unravelling the immense complexity of the human brain requires the ability to selectively interfere ...
Unravelling the immense complexity of the human brain requires the ability to selectively interfere ...
Unravelling the immense complexity of the human brain requires the ability to selectively interfere ...
International audienceGenetically encoded voltage indicators are emerging tools for monitoring volta...
As a “holy grail” of neuroscience, optical imaging of membrane potential could enable high resolutio...
AbstractGenetically encoded voltage indicators (GEVIs) can report cellular electrophysiology with hi...
AbstractPlasma membrane voltage is a fundamentally important property of a living cell; its value is...
Membrane potential (Vmem) is a voltage across the plasma membrane of all cells, arising from differe...
Membrane potential (Vmem) is a voltage across the plasma membrane of all cells, arising from differe...
Voltage imaging is a tried and tested tool for revealing changes in neuronal membrane voltage at hig...
AbstractPlasma membrane voltage is a fundamentally important property of a living cell; its value is...
Plasma membrane voltage is a fundamentally important property of a living cell; its value is tightly...
Photoactivated genetically encoded voltage indicators (GEVIs) have the potential to enable optically...
Optical methods that rely on fluorescence for mapping changes in neuronal membrane potential in the ...
AbstractBackground: Fluorescence detection of cell membrane potentials is an important technique in ...
Unravelling the immense complexity of the human brain requires the ability to selectively interfere ...
Unravelling the immense complexity of the human brain requires the ability to selectively interfere ...
Unravelling the immense complexity of the human brain requires the ability to selectively interfere ...
International audienceGenetically encoded voltage indicators are emerging tools for monitoring volta...
As a “holy grail” of neuroscience, optical imaging of membrane potential could enable high resolutio...