4.8 Review

Transgenic mice encoding modern imaging probes: Properties and applications

Journal

CELL REPORTS
Volume 39, Issue 8, Pages -

Publisher

CELL PRESS
DOI: 10.1016/j.celrep.2022.110845

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Funding

  1. National Institutes of Health [GM122567, NS115581]
  2. Chan Zuckerberg Initiative [226178]

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This article highlights the importance of optical technologies in modern biology for visualization and longitudinal monitoring of cellular processes. Transgenic mice encoding fluorescent proteins and biosensors are unique tools to track molecules and cells in their natural environment in vivo.
Modern biology is increasingly reliant on optical technologies, including visualization and longitudinal monitoring of cellular processes. The major limitation here is the availability of animal models to track the molecules and cells in their natural environment in vivo. Owing to the integrity of the studied tissue and the high stability of transgene expression throughout life, transgenic mice encoding fluorescent proteins and biosensors represent unique tools for in vivo studies in norm and pathology. We review the strategies for targeting probe expression in specific tissues, cell subtypes, or cellular compartments. We describe the application of transgenic mice expressing fluorescent proteins for tracking protein expression patterns, apoptotic events, tissue differentiation and regeneration, neurogenesis, tumorigenesis, and cell fate mapping. We overview the possibilities of functional imaging of secondary messengers, neurotransmitters, and ion fluxes. Finally, we provide the rationale and perspectives for the use of transgenic imaging probes in translational research and drug discovery.

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