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Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain

Zebrafish display widespread and pronounced adult neurogenesis, which is fundamental for their regeneration capability after central nervous system injury. However, the cellular identity and the biological properties of adult newborn neurons are elusive for most brain areas. Here, we have used short...

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Autores principales: Lange, Christian, Rost, Fabian, Machate, Anja, Reinhardt, Susanne, Lesche, Matthias, Weber, Anke, Kuscha, Veronika, Dahl, Andreas, Rulands, Steffen, Brand, Michael
Formato: Online Artículo Texto
Lenguaje:English
Publicado: The Company of Biologists Ltd 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6983714/
https://www.ncbi.nlm.nih.gov/pubmed/31908317
http://dx.doi.org/10.1242/dev.185595
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author Lange, Christian
Rost, Fabian
Machate, Anja
Reinhardt, Susanne
Lesche, Matthias
Weber, Anke
Kuscha, Veronika
Dahl, Andreas
Rulands, Steffen
Brand, Michael
author_facet Lange, Christian
Rost, Fabian
Machate, Anja
Reinhardt, Susanne
Lesche, Matthias
Weber, Anke
Kuscha, Veronika
Dahl, Andreas
Rulands, Steffen
Brand, Michael
author_sort Lange, Christian
collection PubMed
description Zebrafish display widespread and pronounced adult neurogenesis, which is fundamental for their regeneration capability after central nervous system injury. However, the cellular identity and the biological properties of adult newborn neurons are elusive for most brain areas. Here, we have used short-term lineage tracing of radial glia progeny to prospectively isolate newborn neurons from the her4.1(+) radial glia lineage in the homeostatic adult forebrain. Transcriptome analysis of radial glia, newborn neurons and mature neurons using single cell sequencing identified distinct transcriptional profiles, including novel markers for each population. Specifically, we detected two separate newborn neuron types, which showed diversity of cell fate commitment and location. Further analyses showed that these cell types are homologous to neurogenic cells in the mammalian brain, identified neurogenic commitment in proliferating radial glia and indicated that glutamatergic projection neurons are generated in the adult zebrafish telencephalon. Thus, we prospectively isolated adult newborn neurons from the adult zebrafish forebrain, identified markers for newborn and mature neurons in the adult brain, and revealed intrinsic heterogeneity among adult newborn neurons and their homology with mammalian adult neurogenic cell types.
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spelling pubmed-69837142020-01-28 Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain Lange, Christian Rost, Fabian Machate, Anja Reinhardt, Susanne Lesche, Matthias Weber, Anke Kuscha, Veronika Dahl, Andreas Rulands, Steffen Brand, Michael Development Stem Cells and Regeneration Zebrafish display widespread and pronounced adult neurogenesis, which is fundamental for their regeneration capability after central nervous system injury. However, the cellular identity and the biological properties of adult newborn neurons are elusive for most brain areas. Here, we have used short-term lineage tracing of radial glia progeny to prospectively isolate newborn neurons from the her4.1(+) radial glia lineage in the homeostatic adult forebrain. Transcriptome analysis of radial glia, newborn neurons and mature neurons using single cell sequencing identified distinct transcriptional profiles, including novel markers for each population. Specifically, we detected two separate newborn neuron types, which showed diversity of cell fate commitment and location. Further analyses showed that these cell types are homologous to neurogenic cells in the mammalian brain, identified neurogenic commitment in proliferating radial glia and indicated that glutamatergic projection neurons are generated in the adult zebrafish telencephalon. Thus, we prospectively isolated adult newborn neurons from the adult zebrafish forebrain, identified markers for newborn and mature neurons in the adult brain, and revealed intrinsic heterogeneity among adult newborn neurons and their homology with mammalian adult neurogenic cell types. The Company of Biologists Ltd 2020-01-09 /pmc/articles/PMC6983714/ /pubmed/31908317 http://dx.doi.org/10.1242/dev.185595 Text en © 2020. Published by The Company of Biologists Ltd http://creativecommons.org/licenses/by/4.0This is an Open Access article distributed under the terms of the Creative Commons Attribution License (https://creativecommons.org/licenses/by/4.0), which permits unrestricted use, distribution and reproduction in any medium provided that the original work is properly attributed.
spellingShingle Stem Cells and Regeneration
Lange, Christian
Rost, Fabian
Machate, Anja
Reinhardt, Susanne
Lesche, Matthias
Weber, Anke
Kuscha, Veronika
Dahl, Andreas
Rulands, Steffen
Brand, Michael
Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain
title Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain
title_full Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain
title_fullStr Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain
title_full_unstemmed Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain
title_short Single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain
title_sort single cell sequencing of radial glia progeny reveals the diversity of newborn neurons in the adult zebrafish brain
topic Stem Cells and Regeneration
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6983714/
https://www.ncbi.nlm.nih.gov/pubmed/31908317
http://dx.doi.org/10.1242/dev.185595
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