Literature DB >> 2560410

Are glial cells targets of the central noradrenergic system? A review of the evidence.

E A Stone1, M A Ariano.   

Abstract

It has been suggested by a number of investigators that glial cells as well as neurons are targets of the central noradrenergic system. This important hypothesis, however, has not been presented previously in a systematic and unified manner. The present review was therefore undertaken to accomplish this. The evidence supporting noradrenergic action on glia consists primarily of findings that beta-adrenoceptors, norepinephrine (NE)-stimulated cyclic AMP (cAMP) responses and glycogen are localized preferentially in glial cells and that beta-receptor density and glycogen hydrolysis are under the control of neuronally released NE. While there is some disagreement as to the extent to which beta-receptors are preferentially localized in glia, there is a consensus that most glycogen in the forebrain is localized in this cellular compartment. The presumed function of the noradrenergic action on glia appears to be the release of glucose for production of energy, the synthesis of neurotrophic factors such as nerve growth factor, and the release of substances which may affect local neurotransmission including taurine, cAMP and its metabolites. These glial responses may be intimately related to the electrophysiological actions of NE on neurons.

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Year:  1989        PMID: 2560410     DOI: 10.1016/0165-0173(89)90015-5

Source DB:  PubMed          Journal:  Brain Res Brain Res Rev


  27 in total

1.  Neuron-glia signaling via alpha(1) adrenoceptor-mediated Ca(2+) release in Bergmann glial cells in situ.

Authors:  A Kulik; A Haentzsch; M Lückermann; W Reichelt; K Ballanyi
Journal:  J Neurosci       Date:  1999-10-01       Impact factor: 6.167

2.  Chronic encephalopathies induced by mercury or lead: aspects of underlying cellular and molecular mechanisms.

Authors:  L Rönnbäck; E Hansson
Journal:  Br J Ind Med       Date:  1992-04

Review 3.  Molecular mechanisms of memory formation.

Authors:  K T Ng; M E Gibbs; S F Crowe; G L Sedman; F Hua; W Zhao; B O'Dowd; N Rickard; C L Gibbs; E Syková
Journal:  Mol Neurobiol       Date:  1991       Impact factor: 5.590

4.  Adrenergic regulation of intercellular communications between cultured striatal astrocytes from the mouse.

Authors:  C Giaume; P Marin; J Cordier; J Glowinski; J Premont
Journal:  Proc Natl Acad Sci U S A       Date:  1991-07-01       Impact factor: 11.205

5.  Locus coeruleus alpha-adrenergic-mediated activation of cortical astrocytes in vivo.

Authors:  Lane K Bekar; Wei He; Maiken Nedergaard
Journal:  Cereb Cortex       Date:  2008-03-27       Impact factor: 5.357

6.  Development and isoproterenol-induced regulation of adrenoceptor binding in cultured rat neocortical explants is seen only with the beta-1, not with the beta-2 subtype.

Authors:  G J Boer; A A Kellerman; R E Baker; P te Riele; M G Feenstra; M Botterblom; B H Erdtsieck-Ernste
Journal:  Neurochem Res       Date:  1995-05       Impact factor: 3.996

Review 7.  Physiology of Astroglia.

Authors:  Alexei Verkhratsky; Maiken Nedergaard
Journal:  Physiol Rev       Date:  2018-01-01       Impact factor: 37.312

8.  Columnar activity regulates astrocytic beta-adrenergic receptor-like immunoreactivity in V1 of adult monkeys.

Authors:  C Aoki; M Lubin; S Fenstemaker
Journal:  Vis Neurosci       Date:  1994 Jan-Feb       Impact factor: 3.241

9.  Persistent Catechol-O-methyltransferase-dependent Pain Is Initiated by Peripheral β-Adrenergic Receptors.

Authors:  Brittney P Ciszek; Sandra C O'Buckley; Andrea G Nackley
Journal:  Anesthesiology       Date:  2016-05       Impact factor: 7.892

10.  Increased beta(2)-adrenergic receptor activity by thyroid hormone possibly leads to differentiation and maturation of astrocytes in culture.

Authors:  Mausam Ghosh; Sumantra Das
Journal:  Cell Mol Neurobiol       Date:  2007-09-08       Impact factor: 5.046

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