Lithium induced neural plasticity

Neural plasticity refers to the brain’s ability to make new cellular connections. Drugs that can induce neural plasticity are of basic as well as clinical interest. Lithium, a drug already in use, has been demonstrated to be neuroprotective and is likely to find wider use. The spectrum of diseases t...

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Main Authors: Rita Mukhopadhyaya, Medha S Rajadhyaksha
Format: Article
Language:English
Published: Wolters Kluwer Medknow Publications 2017-01-01
Series:Biomedical Research Journal
Subjects:
Online Access:http://www.brjnmims.org/article.asp?issn=2349-3666;year=2017;volume=4;issue=2;spage=137;epage=150;aulast=Mukhopadhyaya;type=0
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spelling doaj-beb6ac9c97894b77949d920fe33c7a412020-12-02T12:25:57ZengWolters Kluwer Medknow PublicationsBiomedical Research Journal2349-36662349-36742017-01-014213715010.4103/2349-3666.240597Lithium induced neural plasticityRita MukhopadhyayaMedha S RajadhyakshaNeural plasticity refers to the brain’s ability to make new cellular connections. Drugs that can induce neural plasticity are of basic as well as clinical interest. Lithium, a drug already in use, has been demonstrated to be neuroprotective and is likely to find wider use. The spectrum of diseases that can be potentially treated with lithium suggests that there could be a common cellular mechanism, such as neural plasticity, in operation. We review effects of lithium on major cellular processes that comprise neuroplasticity – alterations, in vitro and in vivo, in neurites, axons and synapse formation. Lithium is known to support extension of cytoplasmic outgrowths. Lithium alters patterns of axonal modifications including their extensions or retractions and sprouting of new branches. However, there are few studies directly demonstrating lithium action of synapse formation. The molecular basis of lithium action is complex with various pathways involved in cross talk. Of these multiple pathways, we have focused on lithium induced inhibition of glycogen synthase kinase-3β, block of inositol phosphate pathway and up regulation of neurotrophins as there are direct evidences of involvement of these in lithium induced neuroplasticity. This review provides a bird’s eye view of studies that could provide insight into special aspect of lithium action, induction of plasticity, which have implication for treating a wide variety of neurological conditionshttp://www.brjnmims.org/article.asp?issn=2349-3666;year=2017;volume=4;issue=2;spage=137;epage=150;aulast=Mukhopadhyaya;type=0lithiumneuroplasticitysynaptogenesisgsk-3β
collection DOAJ
language English
format Article
sources DOAJ
author Rita Mukhopadhyaya
Medha S Rajadhyaksha
spellingShingle Rita Mukhopadhyaya
Medha S Rajadhyaksha
Lithium induced neural plasticity
Biomedical Research Journal
lithium
neuroplasticity
synaptogenesis
gsk-3β
author_facet Rita Mukhopadhyaya
Medha S Rajadhyaksha
author_sort Rita Mukhopadhyaya
title Lithium induced neural plasticity
title_short Lithium induced neural plasticity
title_full Lithium induced neural plasticity
title_fullStr Lithium induced neural plasticity
title_full_unstemmed Lithium induced neural plasticity
title_sort lithium induced neural plasticity
publisher Wolters Kluwer Medknow Publications
series Biomedical Research Journal
issn 2349-3666
2349-3674
publishDate 2017-01-01
description Neural plasticity refers to the brain’s ability to make new cellular connections. Drugs that can induce neural plasticity are of basic as well as clinical interest. Lithium, a drug already in use, has been demonstrated to be neuroprotective and is likely to find wider use. The spectrum of diseases that can be potentially treated with lithium suggests that there could be a common cellular mechanism, such as neural plasticity, in operation. We review effects of lithium on major cellular processes that comprise neuroplasticity – alterations, in vitro and in vivo, in neurites, axons and synapse formation. Lithium is known to support extension of cytoplasmic outgrowths. Lithium alters patterns of axonal modifications including their extensions or retractions and sprouting of new branches. However, there are few studies directly demonstrating lithium action of synapse formation. The molecular basis of lithium action is complex with various pathways involved in cross talk. Of these multiple pathways, we have focused on lithium induced inhibition of glycogen synthase kinase-3β, block of inositol phosphate pathway and up regulation of neurotrophins as there are direct evidences of involvement of these in lithium induced neuroplasticity. This review provides a bird’s eye view of studies that could provide insight into special aspect of lithium action, induction of plasticity, which have implication for treating a wide variety of neurological conditions
topic lithium
neuroplasticity
synaptogenesis
gsk-3β
url http://www.brjnmims.org/article.asp?issn=2349-3666;year=2017;volume=4;issue=2;spage=137;epage=150;aulast=Mukhopadhyaya;type=0
work_keys_str_mv AT ritamukhopadhyaya lithiuminducedneuralplasticity
AT medhasrajadhyaksha lithiuminducedneuralplasticity
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