Brain patterning perturbations following PTEN loss

This review will consider the impact of compromised PTEN signaling in brain patterning. We approach understanding the contribution of PTEN to nervous system development by surveying the findings from the numerous genetic loss-of-function models that have been generated as well as other forms of PTEN...

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Main Authors: Anthony Paul Barnes, Biliana O Veleva-Rotse
Format: Article
Language:English
Published: Frontiers Media S.A. 2014-05-01
Series:Frontiers in Molecular Neuroscience
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fnmol.2014.00035/full
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spelling doaj-684992b91ceb43d39c288373c28f585f2020-11-25T00:06:22ZengFrontiers Media S.A.Frontiers in Molecular Neuroscience1662-50992014-05-01710.3389/fnmol.2014.0003582394Brain patterning perturbations following PTEN lossAnthony Paul Barnes0Biliana O Veleva-Rotse1Biliana O Veleva-Rotse2Oregon Health and Science UniversityOregon Health and Science UniversityOregon Health and Science UniversityThis review will consider the impact of compromised PTEN signaling in brain patterning. We approach understanding the contribution of PTEN to nervous system development by surveying the findings from the numerous genetic loss-of-function models that have been generated as well as other forms of PTEN inactivation. By exploring the developmental programs influenced by this central transduction molecule, we can begin to understand the molecular mechanisms that shape the developing brain. A wealth of data indicates that PTEN plays critical roles in a variety of stages during brain development. Many of them are considered here including: stem cell proliferation, fate determination, polarity, migration, process outgrowth, myelination and somatic hypertrophy. In many of these contexts, it is clear that PTEN phosphatase activity contributes to the observed effects of genetic deletion or depletion, however recent studies have also ascribed non-catalytic functions to PTEN in regulating cell function. We also explore the potential impact this alternative pool of PTEN may have on the developing brain. Together, these elements begin to form a clearer picture of how PTEN contributes to the emergence of brain structure and binds form and function in the nervous system.http://journal.frontiersin.org/Journal/10.3389/fnmol.2014.00035/fullPTEN PhosphohydrolaseSignal TransductionBrain DevelopmentAxon outgrowthprogenitor cellsmouse models
collection DOAJ
language English
format Article
sources DOAJ
author Anthony Paul Barnes
Biliana O Veleva-Rotse
Biliana O Veleva-Rotse
spellingShingle Anthony Paul Barnes
Biliana O Veleva-Rotse
Biliana O Veleva-Rotse
Brain patterning perturbations following PTEN loss
Frontiers in Molecular Neuroscience
PTEN Phosphohydrolase
Signal Transduction
Brain Development
Axon outgrowth
progenitor cells
mouse models
author_facet Anthony Paul Barnes
Biliana O Veleva-Rotse
Biliana O Veleva-Rotse
author_sort Anthony Paul Barnes
title Brain patterning perturbations following PTEN loss
title_short Brain patterning perturbations following PTEN loss
title_full Brain patterning perturbations following PTEN loss
title_fullStr Brain patterning perturbations following PTEN loss
title_full_unstemmed Brain patterning perturbations following PTEN loss
title_sort brain patterning perturbations following pten loss
publisher Frontiers Media S.A.
series Frontiers in Molecular Neuroscience
issn 1662-5099
publishDate 2014-05-01
description This review will consider the impact of compromised PTEN signaling in brain patterning. We approach understanding the contribution of PTEN to nervous system development by surveying the findings from the numerous genetic loss-of-function models that have been generated as well as other forms of PTEN inactivation. By exploring the developmental programs influenced by this central transduction molecule, we can begin to understand the molecular mechanisms that shape the developing brain. A wealth of data indicates that PTEN plays critical roles in a variety of stages during brain development. Many of them are considered here including: stem cell proliferation, fate determination, polarity, migration, process outgrowth, myelination and somatic hypertrophy. In many of these contexts, it is clear that PTEN phosphatase activity contributes to the observed effects of genetic deletion or depletion, however recent studies have also ascribed non-catalytic functions to PTEN in regulating cell function. We also explore the potential impact this alternative pool of PTEN may have on the developing brain. Together, these elements begin to form a clearer picture of how PTEN contributes to the emergence of brain structure and binds form and function in the nervous system.
topic PTEN Phosphohydrolase
Signal Transduction
Brain Development
Axon outgrowth
progenitor cells
mouse models
url http://journal.frontiersin.org/Journal/10.3389/fnmol.2014.00035/full
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AT bilianaovelevarotse brainpatterningperturbationsfollowingptenloss
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