Knock-in rats expressing Cre and Flp recombinases at the Parvalbumin locus

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Author(s)

Author Name

Jai Y Yu

Published 3 Projects

Neuroscience

Jeffrey R Pettibone

Published 1 Project

Neuroscience

Caiying Guo

Published 1 Project

Neuroscience

Shuqin Zhang

Published 1 Project

Neuroscience

Thomas L. Saunders

Published 1 Project

Neuroscience

Elizabeth D Hughes

Published 1 Project

Neuroscience

Wanda E Filipiak

Published 1 Project

Neuroscience

Michael G Zeidler

Published 1 Project

Neuroscience

Kevin J Bender

Published 1 Project

Neuroscience

Frederic Hopf

Published 1 Project

Neuroscience

Clay N. Smyth

Published 1 Project

Neuroscience

Viktor Kharazia

Published 2 Projects

Neuroscience

Anna Kiseleva

Published 1 Project

Neuroscience

Thomas J. Davidson

Published 2 Projects

Neuroscience

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Loren Frank

Professor at University of California, San Francisco

Field of Study: Biology , Published 30 Projects

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Joshua Berke

Published 1 Project

Neuroscience

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Rats have the ability to learn and perform sophisticated behavioral tasks, making them very useful for investigating neural circuit functions. In contrast to the extensive mouse genetic toolkit, the paucity of recombinase-expressing rat models has limited the ability to monitor and manipulate molecularly-defined neural populations in this species. Here we report the generation and validation of two knock-in rat strains expressing either Cre or Flp recombinase under the control of Parvalbumin (Pvalb), a gene expressed in the critical 'fast-spiking' subset of inhibitory interneurons (FSIs). These strains were generated with CRISPR-Cas9 gene editing and show highly specific and penetrant labeling of Pvalb-expressing neurons, as demonstrated by in situ hybridization and immunohistochemistry. We validated these models in both prefrontal cortex and striatum using both ex vivo and in vivo approaches, including whole-cell recording, optogenetics, extracellular physiology and photometry. Our results demonstrate the utility of these new transgenic models for a wide range of neuroscience experiments.

Neuroscience
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