<it>Drosophila </it>as a genetic and cellular model for studies on axonal growth

<p>Abstract</p> <p>One of the most fascinating processes during nervous system development is the establishment of stereotypic neuronal networks. An essential step in this process is the outgrowth and precise navigation (pathfinding) of axons and dendrites towards their synaptic pa...

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Main Authors: Whitington Paul, Tear Guy, Sánchez-Soriano Natalia, Prokop Andreas
Format: Article
Language:English
Published: BMC 2007-05-01
Series:Neural Development
Online Access:http://www.neuraldevelopment.com/content/2/1/9
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spelling doaj-23cc39b4a4f54e4c83dd849d4824dc182020-11-24T23:07:38ZengBMCNeural Development1749-81042007-05-0121910.1186/1749-8104-2-9<it>Drosophila </it>as a genetic and cellular model for studies on axonal growthWhitington PaulTear GuySánchez-Soriano NataliaProkop Andreas<p>Abstract</p> <p>One of the most fascinating processes during nervous system development is the establishment of stereotypic neuronal networks. An essential step in this process is the outgrowth and precise navigation (pathfinding) of axons and dendrites towards their synaptic partner cells. This phenomenon was first described more than a century ago and, over the past decades, increasing insights have been gained into the cellular and molecular mechanisms regulating neuronal growth and navigation. Progress in this area has been greatly assisted by the use of simple and genetically tractable invertebrate model systems, such as the fruit fly <it>Drosophila melanogaster</it>. This review is dedicated to <it>Drosophila </it>as a genetic and cellular model to study axonal growth and demonstrates how it can and has been used for this research. We describe the various cellular systems of <it>Drosophila </it>used for such studies, insights into axonal growth cones and their cytoskeletal dynamics, and summarise identified molecular signalling pathways required for growth cone navigation, with particular focus on pathfinding decisions in the ventral nerve cord of <it>Drosophila </it>embryos. These <it>Drosophila</it>-specific aspects are viewed in the general context of our current knowledge about neuronal growth.</p> http://www.neuraldevelopment.com/content/2/1/9
collection DOAJ
language English
format Article
sources DOAJ
author Whitington Paul
Tear Guy
Sánchez-Soriano Natalia
Prokop Andreas
spellingShingle Whitington Paul
Tear Guy
Sánchez-Soriano Natalia
Prokop Andreas
<it>Drosophila </it>as a genetic and cellular model for studies on axonal growth
Neural Development
author_facet Whitington Paul
Tear Guy
Sánchez-Soriano Natalia
Prokop Andreas
author_sort Whitington Paul
title <it>Drosophila </it>as a genetic and cellular model for studies on axonal growth
title_short <it>Drosophila </it>as a genetic and cellular model for studies on axonal growth
title_full <it>Drosophila </it>as a genetic and cellular model for studies on axonal growth
title_fullStr <it>Drosophila </it>as a genetic and cellular model for studies on axonal growth
title_full_unstemmed <it>Drosophila </it>as a genetic and cellular model for studies on axonal growth
title_sort <it>drosophila </it>as a genetic and cellular model for studies on axonal growth
publisher BMC
series Neural Development
issn 1749-8104
publishDate 2007-05-01
description <p>Abstract</p> <p>One of the most fascinating processes during nervous system development is the establishment of stereotypic neuronal networks. An essential step in this process is the outgrowth and precise navigation (pathfinding) of axons and dendrites towards their synaptic partner cells. This phenomenon was first described more than a century ago and, over the past decades, increasing insights have been gained into the cellular and molecular mechanisms regulating neuronal growth and navigation. Progress in this area has been greatly assisted by the use of simple and genetically tractable invertebrate model systems, such as the fruit fly <it>Drosophila melanogaster</it>. This review is dedicated to <it>Drosophila </it>as a genetic and cellular model to study axonal growth and demonstrates how it can and has been used for this research. We describe the various cellular systems of <it>Drosophila </it>used for such studies, insights into axonal growth cones and their cytoskeletal dynamics, and summarise identified molecular signalling pathways required for growth cone navigation, with particular focus on pathfinding decisions in the ventral nerve cord of <it>Drosophila </it>embryos. These <it>Drosophila</it>-specific aspects are viewed in the general context of our current knowledge about neuronal growth.</p>
url http://www.neuraldevelopment.com/content/2/1/9
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AT prokopandreas itdrosophilaitasageneticandcellularmodelforstudiesonaxonalgrowth
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