Skip to content
MS
unreviewed

Cytosolic malate dehydrogenase

2 reactions · 2 pathways

What it does, reaction by reaction

2 reactions

Gluconeogenesis Carbohydrate Metabolism · Cytosol + mitochondrion + ER

step 3 Reversible

Malate + NAD+ ↔ oxaloacetate + NADH + H+

Converts Malate NAD+ into Oxaloacetate NADH H+

› Notes

Cytosolic malate dehydrogenase regenerates oxaloacetate and produces cytosolic NADH. The malate transport step itself is carrier-mediated rather than enzymatic; the two dehydrogenase reactions constitute the redox shuttle.

Fatty Acid Synthesis (De Novo Lipogenesis) Lipid Metabolism · Cytosol

step 3 Irreversible/directional

Oxaloacetate + NADH + H+ → malate + NAD+

Converts Oxaloacetate NADH H+ into Malate NAD+

› Notes

Cytosolic malate dehydrogenase reduces oxaloacetate, using NADH. Malate may return to mitochondria or be used to generate NADPH.

Showing all 2 reactions.

What accelerates and inhibits it

Regulation is pathway-specific, so each context is listed separately

0 entries

No regulation recorded for this enzyme in the source documents.

Recent literature

Europe PMC · from cache · sorted by publication date

  1. 1
    Engineering nonconventional yeasts to produce carboxylic acids: Advances and Prospects.

    Zhang L, Fan Y, Shi W, Zhou X. · 2026-07-16

    open access unreviewed
  2. 2
    Necroptosis-related diseases are regulated by the unfolded protein response during endoplasmic reticulum stress.

    Li T, Su T, Tang S, Cao K, Hua P, Gao J, Cui H, Jiang T. · 2026-01-30

    open access unreviewed
  3. 3
    Advancing our understanding of photosynthesis: discoveries and insights from aquatic plants.

    Kazmi A, Li G, Yang J, Zhao X, Islam MF, Li X, Kimura S, Hou H. · 2026-06-29

    open access unreviewed
  4. 4
    MdWRKY125 bridges cold condition and fruit flavor by activating the sucrose synthase gene <i>MdSUS3</i> in apple.

    Zhuang YY, Du LD, Wei MM, Zhang WJ, Wang HC, Zhao TT, Hu DG. · 2026-08-06

    open access unreviewed
  5. 5
    Circadian reprogramming of inflammation and metabolism in chronic kidney disease.

    Li XQ, Cheng L, Chen TF, Ma YN, Li XH, Fu TY, Xiao J, Zhao ZZ. · 2026-09-06

    open access unreviewed
  6. 6
    SnRK1 in stress adaptation and growth regulation: Insights from <i>Arabidopsis</i> to crops.

    Zhong X, Zhang L, Han C, Bai M. · 2026-07-20

    open access unreviewed
  7. 7
    Beyond spherical vesicles: morphological diversity of extracellular vesicles in health and disease.

    Velázquez-Cervantes MA, Fierro NA, Lozano-Hernández R, Carrero JC. · 2026-05-04

    open access unreviewed
  8. 8
    Iterative evolution of <i>Saccharomyces cerevisiae</i> enhances recombinant protease secretion.

    Liu X, Lian M, Zeng J, Zheng L, Zhao M, Huang M. · 2026-04-25

    open access unreviewed
  9. 9
    Spatial transcriptomics reveals the molecular dynamics of follicular development in the yak ovary under high-altitude hypoxia.

    Li X, Li Y, Zhang C, Wang Y, Chen Z, Zeng R, Cen Y, Yang L, Yin S, Xiong Y, Xiong X, Li J. · 2026-07-15

    unreviewed
  10. 10
    Remodeling of mitochondrial dynamics by metabolic pathways couples to oncogenic growth in <i>GNAS</i> (Gα<sub>s</sub>) mutant pancreas cancer.

    Hagedorn GA, Spieser JC, Hirai N, Sato Y, Valentine J, Jiang H, Wang W, Czyzyk-Krzeska MF, Patra KC. · 2026-09-30

    open access unreviewed

External claims. These come from an index outside this database and are not checked against it. Treat them as leads.