GINAs are DNA-encoded reporters used to monitor neural activity optically. The review frames them as a major tool class for recording activity from neurons or glia across temporal and spatial scales.
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genetically encoded indicators of neural activity
Candidate: concept label1 source documents4 linked claims
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GINAs
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When combined with fluorescence microscopy, especially multi-photon imaging, GINAs enable chronic simultaneous optical recordings from large populations of neurons or glial cells in awake behaving mammals, particularly rodents.
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Combined with fluorescence microscopy, most notably multi-photon imaging, GINAs allow chronic simultaneous optical recordings from large populations of neurons or glial cells in awake, behaving mammals, particularly rodents.
Genetically encoded indicators of neural activity can be targeted to genetically defined cellular populations because they are encoded by DNA.
Quoted textsource-backed
As they are encoded by DNA, GINAs can be targeted to genetically defined cellular populations.
Large-scale recording of neural activity across temporal and spatial scales has advanced understanding of neural circuit dynamics underlying behavior.
Quoted textsource-backed
This large-scale recording of neural activity at multiple temporal and spatial scales has greatly advanced our understanding of the dynamics of neural circuitry underlying behavior
Practical use of GINAs involves gene delivery approaches, imaging system requirements, and data analysis techniques.
Quoted textsource-backed
We also discuss practical considerations for end users of GINAs about experimental methods including approaches for gene delivery, imaging system requirements, and data analysis techniques.