Literature DB >> 10764527

Molecular diversity of cyclic AMP signalling.

F A Antoni1.   

Abstract

Several neuroendocrine control systems are prominently controlled by G-protein coupled receptors that activate the cAMP signal transduction pathway. The discovery of multiple genes that encode the molecular machinery of cAMP metabolism has revolutionized our knowledge of cAMP mediated processes. This perhaps all too familiar second messenger can be generated by nine different membrane enzymes in the context of varied levels of activation of G proteins as well as Ca(2+)- and protein kinase C-dependent processes. The amplitude, length and subcellular distribution of the cAMP signal are further modulated by over twenty functionally distinct isotypes of cAMP-degrading phosphodiesterases in a cell- and stimulus-specific manner. The present review summarizes the key properties of the molecular machinery that generates the cAMP signal and highlights how it is deployed in neuroendocrine systems. Copyright 2000 Academic Press.

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Year:  2000        PMID: 10764527     DOI: 10.1006/frne.1999.0193

Source DB:  PubMed          Journal:  Front Neuroendocrinol        ISSN: 0091-3022            Impact factor:   8.606


  39 in total

Review 1.  The many dimensions of cAMP signaling.

Authors:  J H Schwartz
Journal:  Proc Natl Acad Sci U S A       Date:  2001-11-20       Impact factor: 11.205

2.  Increase of cytosolic calcium induced by trichosanthin suppresses cAMP/PKC levels through the inhibition of adenylyl cyclase activity in HeLa cells.

Authors:  Qingsong Jiang; Tumen Bai; Shunhua Shen; Lei Li; Haoliang Ding; Ping Wang
Journal:  Mol Biol Rep       Date:  2010-11-19       Impact factor: 2.316

3.  Cellular localisation of adenylyl cyclase: a post-genome perspective.

Authors:  Ferenc A Antoni; Ulrich K Wiegand; Jamie Black; James Simpson
Journal:  Neurochem Res       Date:  2006-02       Impact factor: 3.996

4.  A simple electrostatic switch important in the activation of type I protein kinase A by cyclic AMP.

Authors:  Dominico Vigil; Jung-Hsin Lin; Christoph A Sotriffer; Juniper K Pennypacker; J Andrew McCammon; Susan S Taylor
Journal:  Protein Sci       Date:  2005-12-01       Impact factor: 6.725

5.  Direct stimulation of adenylyl cyclase 9 by the fungicide imidazole miconazole.

Authors:  James Simpson; Adrienn Pálvölgyi; Ferenc A Antoni
Journal:  Naunyn Schmiedebergs Arch Pharmacol       Date:  2019-01-03       Impact factor: 3.000

6.  Regulation of intracellular cyclic AMP in skeletal muscle cells involves the efflux of cyclic nucleotide to the extracellular compartment.

Authors:  Rosely Oliveira Godinho; Valter Luiz Costa
Journal:  Br J Pharmacol       Date:  2003-03       Impact factor: 8.739

7.  Localization of angiotensin-II type 1(AT1) receptors on buffalo spermatozoa: AT1 receptor activation during capacitation triggers rise in cyclic AMP and calcium.

Authors:  Sivaram Vedantam; Rita Rani; Monica Garg; Suresh K Atreja
Journal:  Mol Biol Rep       Date:  2014-01-17       Impact factor: 2.316

8.  An extranuclear locus of cAMP-dependent protein kinase action is necessary and sufficient for promotion of spiral ganglion neuronal survival by cAMP.

Authors:  Jinwoong Bok; Xiang-Ming Zha; Yang-Sun Cho; Steven H Green
Journal:  J Neurosci       Date:  2003-02-01       Impact factor: 6.167

9.  Refolding and kinetic characterization of the phosphodiesterase-8A catalytic domain.

Authors:  Zier Yan; Huanchen Wang; Jiwen Cai; Hengming Ke
Journal:  Protein Expr Purif       Date:  2008-10-19       Impact factor: 1.650

10.  Rolipram, a phosphodiesterase 4 inhibitor, stimulates inducible cAMP early repressor expression in osteoblasts.

Authors:  Eun Sook Cho; Ja Heon Yu; Mi Sun Kim; Mijung Yim
Journal:  Yonsei Med J       Date:  2005-02-28       Impact factor: 2.759

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