Literature DB >> 6282252

Evidence for the extracellular reduction of ferricyanide by rat liver. A trans-plasma membrane redox system.

M G Clark, E J Partick, G S Patten, F L Crane, H Löw, C Grebing.   

Abstract

1. Reduction of ferricyanide by the isolated perfused rat liver and by isolated rat hepatocytes was studied. 2. Ferricyanide was reduced to ferrocyanide by the perfused liver at a linear rate of 0.22mumol/min per g of liver. Ferricyanide was not taken up by the liver and the perfusate concentration of ferricyanide+ferrocyanide remained constant throughout the perfusion. Perfusate samples from livers perfused without ferricyanide did not reduce ferricyanide. 3. Isolated hepatocytes reduced ferricyanide in a biphasic manner. The initial rate of 2.3mumol/min per g of cells proceeded for approx. 3min and derived from low-affinity sites (apparent K(m)>1.3mm). The secondary rate of 0.29mumol/min per g of cells was maintained for the remainder of the incubation and derived from higher affinity sites (apparent K(m)0.13mm). Disruption of the cells resulted in an increase in the low-affinity rate and a decrease in the high-affinity rate. 4. Ferrocyanide was oxidized by isolated hepatocytes but not by perfused liver. The apparent K(m) for ferrocyanide oxidation by hepatocytes was 1.3mm. 5. Oxidized cytochrome c was reduced by isolated hepatocytes in the presence of 1mm-KCN but at a rate less than that of the reduction of ferricyanide. 6. Properties of the ferricyanide-reducing activities of intact hepatocytes and the perfused liver were examined. The low-affinity rate, present only in cell and broken cell preparations, was inhibited by 1mum-rotenone and 0.5mm-ferrocyanide, and stimulated by 0.1mm-KCN. The mitochondrial substrate, succinate, also stimulated this rate. The perfused liver showed only a high-affinity activity for ferricyanide reduction. This activity was also present in liver cells and was unaffected by rotenone, antimycin A, KCN, NaN(3), or p-hydroxymercuribenzoate but was inhibited by 2.6mm-CaCl(2), 2-heptyl-4-hydroxyquinoline-N-oxide and ferrocyanide. Overall, these results are consistent with the occurrence of a trans-plasma membrane redox system of liver that reduces extracellular ferricyanide to ferrocyanide. The reduction process shows properties which are similar to that of the NADH:ferricyanide oxidoreductase found in isolated liver plasma membranes but different from that of mitochondria.

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Year:  1981        PMID: 6282252      PMCID: PMC1163578          DOI: 10.1042/bj2000565

Source DB:  PubMed          Journal:  Biochem J        ISSN: 0264-6021            Impact factor:   3.857


  16 in total

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Review 2.  Enzyme topology of intracellular membranes.

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Authors:  H Löw; F L Crane
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4.  The relation between membrane structure and NADH: (acceptor) oxidoreductase activity of erythrocyte ghosts.

Authors:  I Zamudio; M Cellino; M Canessa-Fischer
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5.  The mechanism of insulin action: the immediate electrochemical effects of insulin on red-cell systems.

Authors:  T L Dormandy; Z Zarday
Journal:  J Physiol       Date:  1965-10       Impact factor: 5.182

6.  Electron-transferring enzymes in the plasma membrane of the Ehrlich ascites tumor cell.

Authors:  M S Kilberg; H N Christensen
Journal:  Biochemistry       Date:  1979-04-17       Impact factor: 3.162

7.  Specificity in the association of glyceraldehyde 3-phosphate dehydrogenase with isolated human erythrocyte membranes.

Authors:  J A Kant; T L Steck
Journal:  J Biol Chem       Date:  1973-12-25       Impact factor: 5.157

8.  Isolation and partial characterization of human erythrocyte membrane NADH: (acceptor) oxidoreductase.

Authors:  C S Wang; P Alaupovic
Journal:  J Supramol Struct       Date:  1978

9.  B-type cytochromes in plasma membranes isolated from rat liver, in comparison with those of endomembranes.

Authors:  E D Jarasch; J Kartenbeck; G Bruder; A Fink; D J Morré; W W Franke
Journal:  J Cell Biol       Date:  1979-01       Impact factor: 10.539

10.  High-yield preparation of isolated rat liver parenchymal cells: a biochemical and fine structural study.

Authors:  M N Berry; D S Friend
Journal:  J Cell Biol       Date:  1969-12       Impact factor: 10.539

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  16 in total

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Authors:  I L Sun; P Navas; F L Crane; J Y Chou; H Löw
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5.  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
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6.  A transmembranous NADH-dehydrogenase in human erythrocyte membranes.

Authors:  C Grebing; F L Crane; H Löw; K Hall
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7.  Oxygen uptake associated with Sendai-virus-stimulated chemiluminescence in rat thymocytes contains a significant non-mitochondrial component.

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8.  Properties of a transplasma membrane electron transport system in HeLa cells.

Authors:  I L Sun; F L Crane; C Grebing; H Löw
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9.  Response to adriamycin of transplasma membrane electron transport in adriamycin-resistant and nonresistant HL-60 cells.

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10.  Insulin control of a transplasma membrane NADH dehydrogenase in erythrocyte membranes.

Authors:  F L Crane; H E Crane; I L Sun; W C MacKellar; C Grebing; H Löw
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