Brain Beta-Catenin Signalling During Stress and Depression

Beta-catenin is a protein with dual functions in the cell, playing a role in both adhesion between cells as well as gene transcription via the canonical Wnt signalling pathway. In the canonical Wnt signalling pathway, beta-catenin again plays multiple roles. In the embryonic stage, the regulation of...

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Main Authors: Chuin Hau Teo, Tomoko Soga, Ishwar S. Parhar
Format: Article
Language:English
Published: Cell Physiol Biochem Press GmbH & Co KG 2018-02-01
Series:Neurosignals
Subjects:
Online Access:https://www.karger.com/Article/FullText/487764
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author Chuin Hau Teo
Tomoko Soga
Ishwar S. Parhar
author_facet Chuin Hau Teo
Tomoko Soga
Ishwar S. Parhar
author_sort Chuin Hau Teo
collection DOAJ
description Beta-catenin is a protein with dual functions in the cell, playing a role in both adhesion between cells as well as gene transcription via the canonical Wnt signalling pathway. In the canonical Wnt signalling pathway, beta-catenin again plays multiple roles. In the embryonic stage, the regulation of beta-catenin levels activates genes that govern cell proliferation and differentiation. In an adult organism, beta-catenin continues to regulate the cell cycle – as a result over-expression of beta-catenin may lead to cancer. In the brain, dysfunctions in Wnt signalling related to beta-catenin levels may also cause various pathological conditions like Alzheimer’s disease, Parkinson’s disease, and depression. Beta-catenin can be influenced by stressful conditions and increases in glucocorticoid levels. In addition, beta-catenin can be regulated by neurotransmitters such as serotonin and dopamine. Fluctuations in beta-catenin in brain regions under duress have been associated with depressive-like behaviours. It is theorized that the change in behaviour can be attributed to the regulation of Dicer by beta-catenin. Dicer, a protein that produces micro-RNAs in the cell, is a target gene for beta-catenin. Amongst the micro-RNA that it produces are those involved in stress resilience. In this way, beta-catenin has taken its place in the well-studied biochemistry of stress and depression, and future research into this interesting protein may yet yield fruitful results in that field.
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spelling doaj.art-c45e63a5e1ce4912a2e60156585b0bb42022-12-21T19:57:49ZengCell Physiol Biochem Press GmbH & Co KGNeurosignals1424-862X1424-86382018-02-01261314210.1159/000487764487764Brain Beta-Catenin Signalling During Stress and DepressionChuin Hau TeoTomoko SogaIshwar S. ParharBeta-catenin is a protein with dual functions in the cell, playing a role in both adhesion between cells as well as gene transcription via the canonical Wnt signalling pathway. In the canonical Wnt signalling pathway, beta-catenin again plays multiple roles. In the embryonic stage, the regulation of beta-catenin levels activates genes that govern cell proliferation and differentiation. In an adult organism, beta-catenin continues to regulate the cell cycle – as a result over-expression of beta-catenin may lead to cancer. In the brain, dysfunctions in Wnt signalling related to beta-catenin levels may also cause various pathological conditions like Alzheimer’s disease, Parkinson’s disease, and depression. Beta-catenin can be influenced by stressful conditions and increases in glucocorticoid levels. In addition, beta-catenin can be regulated by neurotransmitters such as serotonin and dopamine. Fluctuations in beta-catenin in brain regions under duress have been associated with depressive-like behaviours. It is theorized that the change in behaviour can be attributed to the regulation of Dicer by beta-catenin. Dicer, a protein that produces micro-RNAs in the cell, is a target gene for beta-catenin. Amongst the micro-RNA that it produces are those involved in stress resilience. In this way, beta-catenin has taken its place in the well-studied biochemistry of stress and depression, and future research into this interesting protein may yet yield fruitful results in that field.https://www.karger.com/Article/FullText/487764WntGSK3βGlucocorticoidsSerotoninmiRNA
spellingShingle Chuin Hau Teo
Tomoko Soga
Ishwar S. Parhar
Brain Beta-Catenin Signalling During Stress and Depression
Neurosignals
Wnt
GSK3β
Glucocorticoids
Serotonin
miRNA
title Brain Beta-Catenin Signalling During Stress and Depression
title_full Brain Beta-Catenin Signalling During Stress and Depression
title_fullStr Brain Beta-Catenin Signalling During Stress and Depression
title_full_unstemmed Brain Beta-Catenin Signalling During Stress and Depression
title_short Brain Beta-Catenin Signalling During Stress and Depression
title_sort brain beta catenin signalling during stress and depression
topic Wnt
GSK3β
Glucocorticoids
Serotonin
miRNA
url https://www.karger.com/Article/FullText/487764
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