The turquoise killifish: a genetically tractable model for the study of aging

Lifespan is a remarkably diverse trait in nature, ranging from just hours in adult mayflies to hundreds of years in the Greenland shark and quahog clam. Great disparities in lifespan are often observed even among somewhat closely related species; for example, in the laboratory, wild-derived strains...

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Published in:Journal of Experimental Biology
Main Authors: Poeschla, Michael, Valenzano, Dario R.
Format: Text
Language:English
Published: The Company of Biologists Ltd 2020
Subjects:
Online Access:http://jeb.biologists.org/cgi/content/short/223/Suppl_1/jeb209296
https://doi.org/10.1242/jeb.209296
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spelling fthighwire:oai:open-archive.highwire.org:jexbio:223/Suppl_1/jeb209296 2023-05-15T16:29:55+02:00 The turquoise killifish: a genetically tractable model for the study of aging Poeschla, Michael Valenzano, Dario R. 2020-02-07 01:17:27.0 text/html http://jeb.biologists.org/cgi/content/short/223/Suppl_1/jeb209296 https://doi.org/10.1242/jeb.209296 en eng The Company of Biologists Ltd http://jeb.biologists.org/cgi/content/short/223/Suppl_1/jeb209296 http://dx.doi.org/10.1242/jeb.209296 Copyright (C) 2020, Company of Biologists REVIEW TEXT 2020 fthighwire https://doi.org/10.1242/jeb.209296 2020-02-26T09:08:51Z Lifespan is a remarkably diverse trait in nature, ranging from just hours in adult mayflies to hundreds of years in the Greenland shark and quahog clam. Great disparities in lifespan are often observed even among somewhat closely related species; for example, in the laboratory, wild-derived strains of the common house mouse have a maximum observed lifespan of approximately 6 years, while a similarly sized rodent, the naked mole rat, can live for over 30 years. Comparative biology of aging across the tree of life provides a tremendous opportunity for understanding the molecular and genetic basis underlying lifespan and aging. However, a lack of molecular and laboratory tools has limited the ability of researchers to take full advantage of the incredible diversity of aging phenotypes in nature. Recent developments in genomic technology have made it increasingly possible to study non-canonical model organisms for aging. One promising new genetic model organism amenable to a range of experimental interventions is the turquoise killifish ( Nothobranchius furzeri ). This fish species has a naturally short lifespan and undergoes a wide range of aging-related transformations. These fish have a fully sequenced genome and transcriptome, and killifish embryos are accessible to transgenesis and genome editing. Furthermore, different killifish species and populations show striking differences in lifespan, providing the opportunity for comparative analysis of aging. This Review introduces the natural life history of the turquoise killifish, its emerging applicability as an aging model system, the genetic tools that have been developed to study aging for this species and a summary of recent studies facilitated by these new tools. Text Greenland HighWire Press (Stanford University) Greenland Journal of Experimental Biology 223 Suppl_1
institution Open Polar
collection HighWire Press (Stanford University)
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language English
topic REVIEW
spellingShingle REVIEW
Poeschla, Michael
Valenzano, Dario R.
The turquoise killifish: a genetically tractable model for the study of aging
topic_facet REVIEW
description Lifespan is a remarkably diverse trait in nature, ranging from just hours in adult mayflies to hundreds of years in the Greenland shark and quahog clam. Great disparities in lifespan are often observed even among somewhat closely related species; for example, in the laboratory, wild-derived strains of the common house mouse have a maximum observed lifespan of approximately 6 years, while a similarly sized rodent, the naked mole rat, can live for over 30 years. Comparative biology of aging across the tree of life provides a tremendous opportunity for understanding the molecular and genetic basis underlying lifespan and aging. However, a lack of molecular and laboratory tools has limited the ability of researchers to take full advantage of the incredible diversity of aging phenotypes in nature. Recent developments in genomic technology have made it increasingly possible to study non-canonical model organisms for aging. One promising new genetic model organism amenable to a range of experimental interventions is the turquoise killifish ( Nothobranchius furzeri ). This fish species has a naturally short lifespan and undergoes a wide range of aging-related transformations. These fish have a fully sequenced genome and transcriptome, and killifish embryos are accessible to transgenesis and genome editing. Furthermore, different killifish species and populations show striking differences in lifespan, providing the opportunity for comparative analysis of aging. This Review introduces the natural life history of the turquoise killifish, its emerging applicability as an aging model system, the genetic tools that have been developed to study aging for this species and a summary of recent studies facilitated by these new tools.
format Text
author Poeschla, Michael
Valenzano, Dario R.
author_facet Poeschla, Michael
Valenzano, Dario R.
author_sort Poeschla, Michael
title The turquoise killifish: a genetically tractable model for the study of aging
title_short The turquoise killifish: a genetically tractable model for the study of aging
title_full The turquoise killifish: a genetically tractable model for the study of aging
title_fullStr The turquoise killifish: a genetically tractable model for the study of aging
title_full_unstemmed The turquoise killifish: a genetically tractable model for the study of aging
title_sort turquoise killifish: a genetically tractable model for the study of aging
publisher The Company of Biologists Ltd
publishDate 2020
url http://jeb.biologists.org/cgi/content/short/223/Suppl_1/jeb209296
https://doi.org/10.1242/jeb.209296
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op_relation http://jeb.biologists.org/cgi/content/short/223/Suppl_1/jeb209296
http://dx.doi.org/10.1242/jeb.209296
op_rights Copyright (C) 2020, Company of Biologists
op_doi https://doi.org/10.1242/jeb.209296
container_title Journal of Experimental Biology
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