Literature DB >> 16600197

Mitochondrial glutathione transport: physiological, pathological and toxicological implications.

Lawrence H Lash1.   

Abstract

Although most cellular glutathione (GSH) is in the cytoplasm, a distinctly regulated pool is present in mitochondria. Inasmuch as GSH synthesis is primarily restricted to the cytoplasm, the mitochondrial pool must derive from transport of cytoplasmic GSH across the mitochondrial inner membrane. Early studies in liver mitochondria primarily focused on the relationship between GSH status and membrane permeability and energetics. Because GSH is an anion at physiological pH, this suggested that some of the organic anion carriers present in the inner membrane could function in GSH transport. Indeed, studies by Lash and colleagues in isolated mitochondria from rat kidney showed that most of the transport (>80%) in that tissue could be accounted for by function of the dicarboxylate carrier (DIC, Slc25a10) and the oxoglutarate carrier (OGC, Slc25a11), which mediate electroneutral exchange of dicarboxylates for inorganic phosphate and 2-oxoglutarate for other dicarboxylates, respectively. The identity and function of specific carrier proteins in other tissues is less certain, although the OGC is expressed in heart, liver, and brain and the DIC is expressed in liver and kidney. An additional carrier that transports 2-oxoglutarate, the oxodicarboxylate or oxoadipate carrier (ODC; Slc25a21), has been described in rat and human liver and its expression has a wide tissue distribution, although its potential function in GSH transport has not been investigated. Overexpression of the cDNA for the DIC and OGC in a renal proximal tubule-derived cell line, NRK-52E cells, showed that enhanced carrier expression and activity protects against oxidative stress and chemically induced apoptosis. This has implications for development of novel therapeutic approaches for treatment of human diseases and pathological states. Several conditions, such as alcoholic liver disease, cirrhosis or other chronic biliary obstructive diseases, and diabetic nephropathy, are associated with depletion or oxidation of the mitochondrial GSH pool in liver or kidney.

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Year:  2006        PMID: 16600197      PMCID: PMC1621086          DOI: 10.1016/j.cbi.2006.03.001

Source DB:  PubMed          Journal:  Chem Biol Interact        ISSN: 0009-2797            Impact factor:   5.192


  90 in total

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Journal:  Am J Physiol Renal Physiol       Date:  2005-04-05

3.  Protection against nitric oxide-induced apoptosis in rat mesangial cells demands mitogen-activated protein kinases and reduced glutathione.

Authors:  K B Sandau; D Callsen; B Brüne
Journal:  Mol Pharmacol       Date:  1999-10       Impact factor: 4.436

4.  Oxidative damage to mitochondrial DNA and glutathione oxidation in apoptosis: studies in vivo and in vitro.

Authors:  J M Esteve; J Mompo; J Garcia de la Asuncion; J Sastre; M Asensi; J Boix; J R Vina; J Vina; F V Pallardo
Journal:  FASEB J       Date:  1999-06       Impact factor: 5.191

Review 5.  Hepatic mitochondrial glutathione: transport and role in disease and toxicity.

Authors:  Jose C Fernandez-Checa; Neil Kaplowitz
Journal:  Toxicol Appl Pharmacol       Date:  2005-05-01       Impact factor: 4.219

Review 6.  Role of glutathione transport processes in kidney function.

Authors:  Lawrence H Lash
Journal:  Toxicol Appl Pharmacol       Date:  2005-05-01       Impact factor: 4.219

7.  Reaction of organic nitrate esters and S-nitrosothiols with reduced flavins: a possible mechanism of bioactivation.

Authors:  P S Wong; J M Fukuto
Journal:  Drug Metab Dispos       Date:  1999-04       Impact factor: 3.922

8.  Selective glutathione depletion of mitochondria by ethanol sensitizes hepatocytes to tumor necrosis factor.

Authors:  A Colell; C García-Ruiz; M Miranda; E Ardite; M Marí; A Morales; F Corrales; N Kaplowitz; J C Fernández-Checa
Journal:  Gastroenterology       Date:  1998-12       Impact factor: 22.682

9.  S-nitrosylation and S-glutathiolation of protein sulfhydryls by S-nitroso glutathione.

Authors:  Y Ji; T P Akerboom; H Sies; J A Thomas
Journal:  Arch Biochem Biophys       Date:  1999-02-01       Impact factor: 4.013

10.  Human mitochondrial transmembrane metabolite carriers: tissue distribution and its implication for mitochondrial disorders.

Authors:  M Huizing; W Ruitenbeek; L P van den Heuvel; V Dolce; V Iacobazzi; J A Smeitink; F Palmieri; J M Trijbels
Journal:  J Bioenerg Biomembr       Date:  1998-06       Impact factor: 2.945

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  87 in total

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Journal:  J Comp Physiol B       Date:  2010-06-09       Impact factor: 2.200

3.  Dicarboxylate carrier-mediated glutathione transport is essential for reactive oxygen species homeostasis and normal respiration in rat brain mitochondria.

Authors:  Christelle K Kamga; Shelley X Zhang; Yang Wang
Journal:  Am J Physiol Cell Physiol       Date:  2010-06-10       Impact factor: 4.249

Review 4.  Mitochondrial energy metabolism in neurodegeneration associated with methylmalonic acidemia.

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Journal:  J Bioenerg Biomembr       Date:  2011-02       Impact factor: 2.945

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Authors:  Qing Zhong; Renu A Kowluru
Journal:  Invest Ophthalmol Vis Sci       Date:  2011-11-07       Impact factor: 4.799

Review 6.  Mitochondrial damage & lipid signaling in traumatic brain injury.

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Journal:  Exp Neurol       Date:  2020-04-11       Impact factor: 5.330

7.  Pinocembrin Provides Mitochondrial Protection by the Activation of the Erk1/2-Nrf2 Signaling Pathway in SH-SY5Y Neuroblastoma Cells Exposed to Paraquat.

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Review 8.  Potential therapeutic benefits of strategies directed to mitochondria.

Authors:  Amadou K S Camara; Edward J Lesnefsky; David F Stowe
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9.  Enhanced glutathione biosynthetic capacity promotes resistance to As3+-induced apoptosis.

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Journal:  Toxicol Lett       Date:  2009-12-16       Impact factor: 4.372

10.  Neuroprotection against neuroblastoma cell death induced by depletion of mitochondrial glutathione.

Authors:  Vikas V Dukhande; Ivana Kawikova; Alfred L M Bothwell; James C K Lai
Journal:  Apoptosis       Date:  2013-06       Impact factor: 4.677

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