Literature DB >> 3881265

Transmembrane redox in control of cell growth. Stimulation of HeLa cell growth by ferricyanide and insulin.

I L Sun, F L Crane, C Grebing, H Löw.   

Abstract

The impermeable electron acceptor ferricyanide stimulates the growth of HeLa cells in the absence of serum and increases cell replication with limiting amounts of serum (0.75%). Maximum growth stimulation occurs at low ferricyanide concentration from 0.01 to 0.1 mM. Higher ferricyanide concentrations inhibit growth on serum. Addition of insulin enhances the stimulating effect of ferricyanide. Increase in the transplasmalemma electron transport activity in the presence of insulin is also observed by measuring the rate of ferricyanide reduction by cells. There is a close correlation between insulin stimulation of ferricyanide reduction and insulin induction of cell proliferation and attachment. In addition to ferricyanide, the growth response is observed with other impermeable oxidants, such as indigotetrasulfonate and hexaamine ruthenium III, which are reduced by the transplasma membrane electron transport system. Inactive oxidants such as cytochrome c do not stimulate cell growth. Ferrocyanide does not stimulate growth. We propose that electron flow through the transplasma membrane electron transport system stimulates growth and that insulin acts to increase that flow.

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Year:  1985        PMID: 3881265     DOI: 10.1016/0014-4827(85)90559-2

Source DB:  PubMed          Journal:  Exp Cell Res        ISSN: 0014-4827            Impact factor:   3.905


  13 in total

Review 1.  The role of transferrin in the mechanism of cellular iron uptake.

Authors:  K Thorstensen; I Romslo
Journal:  Biochem J       Date:  1990-10-01       Impact factor: 3.857

2.  The effect of impermeable oxidants on the growth of neoplastic cells.

Authors:  D R Richardson; V Richardson
Journal:  In Vitro Cell Dev Biol Anim       Date:  1998-01       Impact factor: 2.416

3.  Transplasmalemma electron transport is changed in simian virus 40 transformed liver cells.

Authors:  I L Sun; P Navas; F L Crane; J Y Chou; H Löw
Journal:  J Bioenerg Biomembr       Date:  1986-12       Impact factor: 2.945

4.  Modification of transplasma membrane oxidoreduction by SV40 transformation of 3T3 cells.

Authors:  H Löw; F L Crane; C Grebing; M Isaksson; A Lindgren; I L Sun
Journal:  J Bioenerg Biomembr       Date:  1991-12       Impact factor: 2.945

5.  NADH-ascorbate free radical and -ferricyanide reductase activities represent different levels of plasma membrane electron transport.

Authors:  J M Villalba; A Canalejo; J C Rodríguez-Aguilera; M I Burón; D J Mooré; P Navas
Journal:  J Bioenerg Biomembr       Date:  1993-08       Impact factor: 2.945

Review 6.  The essential functions of coenzyme Q.

Authors:  F L Crane; I L Sun; E E Sun
Journal:  Clin Investig       Date:  1993

7.  Effects of plasma membrane oxidoreductases on Ca2+ mobilization and protein phosphorylation in rat brain synaptosomes.

Authors:  C Bulliard; N Marmy; J L Dreyer
Journal:  J Bioenerg Biomembr       Date:  1990-10       Impact factor: 2.945

Review 8.  The role of phosphometabolites in cell proliferation, energy metabolism, and tumor therapy.

Authors:  S Mazurek; C B Boschek; E Eigenbrodt
Journal:  J Bioenerg Biomembr       Date:  1997-08       Impact factor: 2.945

9.  Coenzyme Q reductase from liver plasma membrane: purification and role in trans-plasma-membrane electron transport.

Authors:  J M Villalba; F Navarro; F Córdoba; A Serrano; A Arroyo; F L Crane; P Navas
Journal:  Proc Natl Acad Sci U S A       Date:  1995-05-23       Impact factor: 11.205

Review 10.  NADH oxidase of plasma membranes.

Authors:  D J Morré; A O Brightman
Journal:  J Bioenerg Biomembr       Date:  1991-06       Impact factor: 2.945

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