Literature DB >> 23873936

Physical and functional association of lactate dehydrogenase (LDH) with skeletal muscle mitochondria.

Pia A Elustondo1, Adrienne E White, Meghan E Hughes, Karen Brebner, Evgeny Pavlov, Daniel A Kane.   

Abstract

The intracellular lactate shuttle hypothesis posits that lactate generated in the cytosol is oxidized by mitochondrial lactate dehydrogenase (LDH) of the same cell. To examine whether skeletal muscle mitochondria oxidize lactate, mitochondrial respiratory oxygen flux (JO2) was measured during the sequential addition of various substrates and cofactors onto permeabilized rat gastrocnemius muscle fibers, as well as isolated mitochondrial subpopulations. Addition of lactate did not alter JO2. However, subsequent addition of NAD(+) significantly increased JO2, and was abolished by the inhibitor of mitochondrial pyruvate transport, α-cyano-4-hydroxycinnamate. In experiments with isolated subsarcolemmal and intermyofibrillar mitochondrial subpopulations, only subsarcolemmal exhibited NAD(+)-dependent lactate oxidation. To further investigate the details of the physical association of LDH with mitochondria in muscle, immunofluorescence/confocal microscopy and immunoblotting approaches were used. LDH clearly colocalized with mitochondria in intact, as well as permeabilized fibers. LDH is likely localized inside the outer mitochondrial membrane, but not in the mitochondrial matrix. Collectively, these results suggest that extra-matrix LDH is strategically positioned within skeletal muscle fibers to functionally interact with mitochondria.

Entities:  

Keywords:  Immunohistochemistry; Lactate Shuttle; Lactic Acid; Mitochondrial Metabolism; NAD; Pyruvate; Respiration; Respiratory Chain; Respirometry; Skeletal Muscle Metabolism

Mesh:

Substances:

Year:  2013        PMID: 23873936      PMCID: PMC3757195          DOI: 10.1074/jbc.M113.476648

Source DB:  PubMed          Journal:  J Biol Chem        ISSN: 0021-9258            Impact factor:   5.157


  40 in total

Review 1.  Quantitative assessment of pathways for lactate disposal in skeletal muscle fiber types.

Authors:  C M Donovan; M J Pagliassotti
Journal:  Med Sci Sports Exerc       Date:  2000-04       Impact factor: 5.411

2.  Kinetic parameters of lactate dehydrogenase in liver and gastrocnemius determined by three quantitative histochemical methods.

Authors:  Y Nakae; P J Stoward
Journal:  J Histochem Cytochem       Date:  1997-10       Impact factor: 2.479

3.  Role of cell type in net lactate removal by skeletal muscle.

Authors:  M J Pagliassotti; C M Donovan
Journal:  Am J Physiol       Date:  1990-04

4.  Lactate dehydrogenase in rat mitochondria.

Authors:  R B Brandt; J E Laux; S E Spainhour; E S Kline
Journal:  Arch Biochem Biophys       Date:  1987-12       Impact factor: 4.013

Review 5.  The lactate shuttle during exercise and recovery.

Authors:  G A Brooks
Journal:  Med Sci Sports Exerc       Date:  1986-06       Impact factor: 5.411

6.  Populations of rat skeletal muscle mitochondria after exercise and immobilization.

Authors:  D A Krieger; C A Tate; J McMillin-Wood; F W Booth
Journal:  J Appl Physiol Respir Environ Exerc Physiol       Date:  1980-01

7.  Inhibiting myosin-ATPase reveals a dynamic range of mitochondrial respiratory control in skeletal muscle.

Authors:  Christopher G R Perry; Daniel A Kane; Chien-Te Lin; Rachel Kozy; Brook L Cathey; Daniel S Lark; Constance L Kane; Patricia M Brophy; Timothy P Gavin; Ethan J Anderson; P Darrell Neufer
Journal:  Biochem J       Date:  2011-07-15       Impact factor: 3.857

8.  Cardiac and skeletal muscle mitochondria have a monocarboxylate transporter MCT1.

Authors:  G A Brooks; M A Brown; C E Butz; J P Sicurello; H Dubouchaud
Journal:  J Appl Physiol (1985)       Date:  1999-11

9.  L-lactate oxidation by skeletal muscle mitochondria.

Authors:  A Szczesna-Kaczmarek
Journal:  Int J Biochem       Date:  1990

10.  Intracellular shuttle: the lactate aerobic metabolism.

Authors:  Rogério Santos de Oliveira Cruz; Rafael Alves de Aguiar; Tiago Turnes; Rafael Penteado Dos Santos; Mariana Fernandes Mendes de Oliveira; Fabrizio Caputo
Journal:  ScientificWorldJournal       Date:  2012-04-19
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Authors:  Karen L DeBalsi; Kari E Wong; Timothy R Koves; Dorothy H Slentz; Sarah E Seiler; April H Wittmann; Olga R Ilkayeva; Robert D Stevens; Christopher G R Perry; Daniel S Lark; Simon T Hui; Luke Szweda; P Darrell Neufer; Deborah M Muoio
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