From: Revisiting potential value of antitumor drugs in the treatment of COVID-19
Class | Mode of action | Target | Agent | Clinical trial | Refs |
---|---|---|---|---|---|
Inhibition of viral entry | Inhibition of viral entry and endosome trafficking | PIKfyve | Apilimod | NCT04446377 | [41] |
Allosterically inhibiting the binding of ACE2 to S protein | ACE2 | Imatinib | NCT04394416 NCT04953052 NCT04794088 | [52] | |
Interference with the viral cycle | Inhibition of protein translation | eIF4A | Zotatifin | NCT04632381 | [56] |
eEF1A2 | Plitidepsin | NCT04382066 NCT04784559 | [59] | ||
Blockade of viral replication | FASN | TVB-2640 | NA | [66] | |
Folate metabolism | Methotrexate | NCT04610567 | [33] | ||
CK2 | Silmitasertib | NCT04663737 NCT04668209 | [76] | ||
mTORC1 | Rapamycin | NCT04341675 NCT04948203 NCT04461340 | [82] | ||
Competitive inhibition of Mpro | Mpro | Masitinib | NCT05047783 | [84] | |
Inhibition of overactivated inflammatory responses | Blockade of excessive cytokines | IL-6 | Tocilizumab | NCT04356937 NCT04320615 NCT04372186 NCT02735707 | |
JAK | Tofacitinib | NCT04750317 NCT04469114 | [117] | ||
Baricitinib | NCT04358614 NCT04421027 NCT04362943 NCT04401579 NCT04640168 | [118] | |||
Ruxolitinib | NCT04334044 NCT04362137 NCT04338958 NCT04374149 NCT04359290 | [119] | |||
TNF-α | Thalidomide | NCT04273581 NCT04273529 | [24] | ||
Lenalidomide | NCT04361643 | [24] | |||
TOP1 | Topotecan | NCT05083000 | [131] | ||
Activation of innate immune response | STING | diABZI | NA | [97] | |
Inhibition of the production of active neutrophil | Neutrophils | Corticosteroids | NCT04530409 NCT04726098 NCT04355637 NCT05004753 | [124] | |
Inhibition of the production of proinflammatory cytokines from immune cells | BTK | Ibrutinib | NCT04375397 NCT04439006 NCT04848493 | [138] | |
Acalabrutinib | NCT04647669 NCT04497948 NCT04380688 NCT04665115 | [139] | |||
Zanubrutinib | NCT04382586 | [139] | |||
Inhibition of angiogenesis | VEGF | Bevacizumab | NCT04275414 NCT04822818 | [128] |