Literature DB >> 9298712

Is the drug-responsive NADH oxidase of the cancer cell plasma membrane a molecular target for adriamycin?

D J Morré1, C Kim, M Paulik, D M Morré, W P Faulk.   

Abstract

Enhanced growth inhibition and antitumor responses to adriamycin have been observed repeatedly from several laboratories using impermeant forms of adriamycin where entry into the cell was greatly reduced or prevented. Our laboratory has described an NADH oxidase activity at the external surface of plasma membrane vesicles from tumor cells where inhibition by an antitumor sulfonylurea, N-(4-methylphenylsulfonyl)-N'-(4-chlorophenyl)urea (LY181984), and by the vanilloid, capsaicin (8-methyl-N-vanillyl-6-noneamide) correlated with inhibition of growth. Here we report that the oxidation of NADH by isolated plasma membrane vesicles was inhibited, as well, by adriamycin. An external site of inhibition was indicated from studies where impermeant adriamycin conjugates were used. The EC50 for inhibition of the oxidase of rat hepatoma plasma membranes by adriamycin was several orders of magnitude less than that for rat liver. Adriamycin cross-linked to diferric transferrin and other impermeant supports also was effective in inhibition of NADH oxidation by isolated plasma membrane vesicles and in inhibition of growth of cultured cells. The findings suggest the NADH oxidase of the plasma membrane as a growth-related adriamycin target at the surface of cancer cells responsive to adriamycin. Whereas DNA intercalation remains clearly one of the principal bases for the cytotoxic action of free adriamycin, this second site, possibly related to a more specific antitumor action, may be helpful in understanding the enhanced efficacy reported previously for immobilized adriamycin forms compared to free adriamycin.

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Year:  1997        PMID: 9298712     DOI: 10.1023/a:1022414228013

Source DB:  PubMed          Journal:  J Bioenerg Biomembr        ISSN: 0145-479X            Impact factor:   2.945


  62 in total

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Journal:  Biochem Pharmacol       Date:  1984-02-15       Impact factor: 5.858

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8.  Response to adriamycin of transplasma membrane electron transport in adriamycin-resistant and nonresistant HL-60 cells.

Authors:  D J Morré; D M Morré; L Y Wu
Journal:  J Bioenerg Biomembr       Date:  1994-02       Impact factor: 2.945

9.  Cytochrome b, flavins, and ubiquinone-50 in enucleated human neutrophils (polymorphonuclear leukocyte cytoplasts).

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Authors:  D J Morré; F E Wilkinson; J Lawrence; N Cho; M Paulik
Journal:  Biochim Biophys Acta       Date:  1995-06-14
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  6 in total

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2.  Phenoxodiol treatment alters the subsequent response of ENOX2 (tNOX) and growth of hela cells to paclitaxel and cisplatin.

Authors:  D James Morré; Nicole McClain; L-Y Wu; Graham Kelly; Dorothy M Morré
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3.  Benzo[b]thiophenesulphonamide 1,1-dioxide derivatives inhibit tNOX activity in a redox state-dependent manner.

Authors:  I Encío; D J Morré; R Villar; M J Gil; V Martínez-Merino
Journal:  Br J Cancer       Date:  2005-02-28       Impact factor: 7.640

4.  Tumor-associated NADH oxidase (tNOX)-NAD+-sirtuin 1 axis contributes to oxaliplatin-induced apoptosis of gastric cancer cells.

Authors:  Huei-Yu Chen; Hsiao-Ling Cheng; Yi-Hui Lee; Tien-Ming Yuan; Shi-Wen Chen; You-Yu Lin; Pin Ju Chueh
Journal:  Oncotarget       Date:  2017-02-28

5.  ENOX2 target for the anticancer isoflavone ME-143.

Authors:  D James Morré; Theodore Korty; Christiaan Meadows; Laura M C Ades; Dorothy M Morré
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6.  Bis(chloroacetamidino)-Derived Heteroarene-Fused Anthraquinones Bind to and Cause Proteasomal Degradation of tNOX, Leading to c-Flip Downregulation and Apoptosis in Oral Cancer Cells.

Authors:  Jeng Shiun Chang; Chien-Yu Chen; Alexander S Tikhomirov; Atikul Islam; Ru-Hao Liang; Chia-Wei Weng; Wei-Hou Wu; Andrey E Shchekotikhin; Pin Ju Chueh
Journal:  Cancers (Basel)       Date:  2022-09-28       Impact factor: 6.575

  6 in total

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