Table 2.
S.no | Inhibitor/drug | Target | Remarks | References |
---|---|---|---|---|
1 | Metformin | Phosphorylates mTOR and p70S6k | Autophagy interrupts the mitochondrial respiratory chain and induces production of ROS |
(Naicker et al., 2020) |
2 | M1 | Mitochondrial fusion | Restores Mitochondrial functions | (Asalla et al., 2017) |
3 | Cystamine/cysteamine | Transglutaminase | increasing glutathione and L-cysteine level | (Palucci et al., 2019) |
4 | Statins | HMG CoA reductase | Autophagy Block lipid accumulation |
(Palucci and Delogu, 2018) |
5 | Alisporivir | PTP inhibitor cyclophilin D | Inhibits ROS Necrosis is inhibited without affecting bacterial clearance In phase III clinical trials |
(Šileikyte and Forte, 2016)) |
6 | VitD3 | Stimulates vitamin D receptor and induces cathelicidin expression as well as Atg5 and Beclin-1 | Autophagy reverses PPAR-γ mediated adipogenic effects |
(Palucci and Delogu, 2018) |
7 | Aspirin ibuprofen zileuton | Block eicosanoids | Modulates inflammation through classical COX-dependent inhibition of prostaglandins | (Tobin, 2015) |
8 | H-89/ETB089 | cAMP-dependent PKA inhibitor | Enhance Autophagy | (Kuijl et al., 2007) |
9 | Pioglitazone, rosiglitazone, and treprostinil | PPAR-γ | Regulate genes of glucose and lipid metabolism and decrease triglycerides and increase insulin uptake | (Rask-Andersen et al., 2014) |
10 | Mepenzolate bromide | G-protein-coupled receptor GPR109A pathway | bacterial burden was reduced in cell culture and in mouse in vivo models | (Singh et al., 2012) |
11 | Rapamycin | mTOR | Enhances autophagy | (Singh and Subbian, 2018) |
12 | Cyclosporine corticosteroids | MMT inhibitors | Inhibit necrosis | (Gan et al., 2005; Grab et al., 2019) |