Functional imaging using fluorescent indicators has revolutionized biology but additional sensor scaffolds are needed to access properties such as bright, far-red emission. We introduce a new platform for ‘chemigenetic’ fluorescent indicators, utilizing the self-labeling HaloTag protein conjugated to environmentally sensitive synthetic fluorophores. This approach affords bright, far-red calcium and voltage sensors with highly tunable photophysical and chemical properties, which can reliably detect single action potentials in neurons.status: publishe
Fluorescent probes that indicate biologically important quantities are widely used for many differen...
Methods for optical measurement of voltage dynamics in living cells are attractive because they prov...
Genetically encoded voltage indicators, particularly those based on microbial rhodopsins, are gainin...
These authors contributed equally to this work. Genetically encoded fluorescent reporters of membran...
Fluorescent probes are noninvasive tools that can be used to map the electrical activity and synapti...
International audienceBiocompatible fluorescent reporters with spectral properties spanning the enti...
Our ability to investigate the brain is limited by available technologies that can record biological...
Genetically encoded fluorescent reporters of membrane potential promise to reveal aspects of neural ...
Optical monitoring of neuronal voltage using fluorescent indicators is a powerful approach for the i...
Recent advances in fluorescence imaging permit large-scale recording of neural activity and dynamics...
Genetically encoded fluorescent reporters of membrane potential promise to reveal aspects of neural ...
We developed genetically encoded voltage indicators using a transmembrane voltage-sensing domain and...
Recording activity from identified populations of neurons is a central goal of neuroscience. Changes...
We introduce a family of bright, rhodamine-based calcium indicators with tuneable affinities and col...
Protein engineering over the past four years has made rhodopsin-based genetically encoded voltage in...
Fluorescent probes that indicate biologically important quantities are widely used for many differen...
Methods for optical measurement of voltage dynamics in living cells are attractive because they prov...
Genetically encoded voltage indicators, particularly those based on microbial rhodopsins, are gainin...
These authors contributed equally to this work. Genetically encoded fluorescent reporters of membran...
Fluorescent probes are noninvasive tools that can be used to map the electrical activity and synapti...
International audienceBiocompatible fluorescent reporters with spectral properties spanning the enti...
Our ability to investigate the brain is limited by available technologies that can record biological...
Genetically encoded fluorescent reporters of membrane potential promise to reveal aspects of neural ...
Optical monitoring of neuronal voltage using fluorescent indicators is a powerful approach for the i...
Recent advances in fluorescence imaging permit large-scale recording of neural activity and dynamics...
Genetically encoded fluorescent reporters of membrane potential promise to reveal aspects of neural ...
We developed genetically encoded voltage indicators using a transmembrane voltage-sensing domain and...
Recording activity from identified populations of neurons is a central goal of neuroscience. Changes...
We introduce a family of bright, rhodamine-based calcium indicators with tuneable affinities and col...
Protein engineering over the past four years has made rhodopsin-based genetically encoded voltage in...
Fluorescent probes that indicate biologically important quantities are widely used for many differen...
Methods for optical measurement of voltage dynamics in living cells are attractive because they prov...
Genetically encoded voltage indicators, particularly those based on microbial rhodopsins, are gainin...