Mainali et al. (7) |
Hepatocytes of male C57BL/6J |
Dichloroacetate |
↑
|
Dysregulated hepatocyte metabolism and mitochondrial dysfunction were reversed |
Bakalov et al. (20) |
Drosophila |
Dichloroacetate |
↑
|
Normalized lactate and TCA metabolites, and improved lifespan |
Vary (21) |
Hindlimb skeletal muscle of male Sprague-Dawley rats |
Escherichia coli plus bacteroides fragilis |
↓
|
Sustained hyperlactatemia |
Vary et al. (37) |
Hindlimb skeletal muscle of male Sprague-Dawley rats |
TNF binding protein |
↑
|
Hyperlactatemia were prevented |
L'Her and Sebert (38) |
Blood from the internal jugular vein and lateral gastrocnemius muscle of male Sprague-Dawley rats |
Dichloroacetate |
↑
|
Lactate content was decreased and glucose content was increased |
Tan et al. (42) |
Bone marrow-derived macrophages from C57BL/6 male mice |
PDK1 siRNA |
↑
|
M1 was diminished, whereas M2 activation and mitochondrial respiration was enhanced |
McCall et al. (51) |
Splenocyte and hepatocyte from C57BL/6 male mice |
Dichloroacetate |
↑
|
Mitochondrial oxidative bioenergetics was increased, vascular and organ homeostasis was promoted, and survival rate was increased |
Giacalone et al. (60) |
Three patients with severe lactic acidosis |
Thiamine |
↑
|
A rapid and marked restoration of acid-base balance |
Burns et al. (63) |
Hearts from adult male Sprague-Dawley rats |
Amrinone or dichloroacetate |
↑
|
Myocardial ATP levels were elevated, and myocardial oxidation of glucose was enhanced |
Vary (64) |
Hindlimb skeletal muscle of male Sprague-Dawley rats |
Amrinone |
↑
|
Reduced lactate concentrations |