Table 1.
HDT in glucose metabolism | |||
---|---|---|---|
Name | Target | Result | References |
2-deoxyglucose | Hexokinase | Inhibition of glycolysis Suppression of IL-1β | (73, 112) |
3-bromopyruvate | Hexokinase | Inhibition of glycolysis | (113) |
Ritonavir | Glucose transporter | Inhibition of glycolysis | (114) |
Dichloroacetate | Pyruvate dehydrogenase kinase | Inhibition of glycolysis | (115) |
FX11 | Lactate dehydrogenase | Inhibition of glycolysis Downregulation of cytokines and iNOS |
(116) |
TEPP46 | Pyruvate kinase M2 | Inhibition of HIF-1α Suppression of IL-1β | (80) |
Rapamycin | mTOR | Inhibition of glycolysis Upregulation of antimicrobial effect | (117, 118) |
Loperamide | mTOR | Inhibition of glycolysis Upregulation of antimicrobial effect |
(119) |
HDT in lipid metabolism | |||
Metformin | AMP kinase | Increased fatty acid oxidation. Inhibition antibacterial activity Reduced gene of inflammation | (120, 121) |
AICAR | AMP kinase | Increased antibacterial activity Induced mitochondrial biogenesis and energy metabolism Inhibition of lipid synthesis |
(122) |
C75 | Fatty acid synthase | Inhibition of fatty acid synthesis Reduced the inflammation and oxidative stress Switch M2 to M1 Downregulation of NLRP3 inflammasom |
(123–125) |
Cerulenin | Fatty acid synthase | Inhibition of fatty acid synthesis Downregulation of NLRP3 inflammasome | (125) |
GW9662 | PPARγ | Modulation of lipid metabolism, inflammation and pathogenesis of bacteria | (95) |
Sirtuins | PGC-1α | Inhibition of NF-κB signaling and proinflammatory response Upregulation of fatty acid oxidation and anti-inflammation |
(76, 126–128) |
HDT in glucose metabolism HDT in lipid metabolism.