From: Underlying mechanisms and drug intervention strategies for the tumour microenvironment
Drug | Inhibitory mechanisms | Mode of action | Test mode | Reference |
---|---|---|---|---|
Oxaliplatin | Immunosuppressive cells | Increase activation of CD8 + T cells, reduce cancer CD11b + F4/80 high macrophages, and reduce spleen MDSCs | In vitro and in vivo test | [86] |
PG545 | Growth factor-mediated cell invasion | Reduces the phosphorylation of AKT, EGFR and ERK induced by HB-EGF | Phase I clinical trials | [87] |
Gemcitabine | EMT | Reduce the frequency of CTC and the logarithm of CTC | In vitro and in vivo test | [88] |
Paclitaxel | EMT | Reduce the frequency of CTC and the logarithm of CTC | In vitro and in vivo test | [88] |
Fludarabine | Brain cancer cells | X-inactivated specific transcript | In vitro and in vivo test | [89] |
Rapamycin | TAMs | Reduction in the expression of Bcl-2 and Survivin and an increase in the expression of Smac | In vitro test | [90] |
Apatinib | EMT/Angiogenesis | Targeting STAT3/block PI3K/AKT and VEGFR2/RAF/MEK/ERK signaling pathways | In vitro and in vivo test | |
WRG-28 | Cancer invasion and migration | DDR2 | In vitro and in vivo test | [93] |
Bortezomib | CAF | Caspase-3 | In vitro and in vivo test | [94] |
Pambarbital | CAF | Caspase-3 | In vitro and in vivo test | [94] |
Apelin inhibitor | Angiogenesis/MDSCs | Apelin | In vitro and in vivo test | [95] |
Dasatinib | TAMS | Inhibited the self-renewal ability of H460R and A549R cells | In vitro test | [96] |
Repagenil | Cancer cell | MSCs | In vitro and in vivo test | [97] |
Anti-CTLA-4 antibody | T cells | Enhance antibody-dependent cell-mediated cytotoxicity, phagocytosis | Preclinical trial | [98] |
Transforming growth factor-β inhibitors | Cancer cell/releasing cytotoxic T cells/promote T cell infiltration | Transforming growth factor-β | In vitro and in vivo test | |
Plerixafor | Angiogenesis | CXCR4 | In vitro and in vivo test | [101] |
Macrophage receptor with collagen structure | Cancer proliferation | E-programming of macrophages | In vitro and in vivo test | [102] |
Embeline | Growth of pancreatic cancer | Increasing the infiltration of Th1 cells, NK, CTL, γ δ T and NKT, and reducing the infiltration of Th17, PMN-MDSC, IL-8 and IL-6 positive immune cells | In vitro and in vivo test | [103] |
Functionalized micellar | Reverse the abnormal expression of several key marker proteins | Inhibit the adhesion of activated endothelial cells to circulating cancer cell | In vitro and in vivo test | [104] |
Cancer matrix-targeted nano-carrier | Cut off the support of the matrix to cancer cells | Remove CAFs, | In vitro and in vivo test | [105] |
Nanoparticles-based photoimmunotherapy | T cells | CAFs | In vitro and in vivo test | [106] |
Curcumin | Cancer cells, Angiogenesis | VEGF, IL-6 and cancer stem cells, transcription factor nuclear factor-NB (NF-NB), signal transduction, transcriptional activator 3 and angiogenic cytokines | In vitro and in vivo test | |
APG-157 | Attract immune cells into the TME | Increased expression of CD4+ and CD8+ cells and increased expression of PD-1 and PD-L1 | Phase I placebo controlled trial | [109] |
Sophoridine | Macrophage | TLR4/IRF3 pathway | In vitro test | [110] |
Ginsenoside Rh2 | Improve TME | Regulating the phenotype of TAMs | In vitro and in vivo test | [111] |
Berberine | EMT | Smad-independent and Smad-dependent transforming growth factor-β signaling pathway | In vitro test | [112] |
Wogonin | EMT | IL-6/STAT3 signal pathway | In vitro and in vivo test | [113] |
Bigelovin | EMT | N-and E-cadherin, STAT3 pathway, and cofilin pathway | In vitro and in vivo test | [114] |
Cordycepin | Up-regulating cancer cell apoptosis and eliciting cell cycle arrest | CSCs | In vitro test | [115] |
Shikonin | Cancer cell | Exosome | In vitro test | [116] |
6-gingerol (6G) | TME | Promoting cancer vascular normalization, reducing microvascular structure entropy (MSE) | In vitro and in vivo test | [117] |
Salvianolic acid A | Angiogenesis | Block the secretion of glucose-regulated protein 78 | In vitro and in vivo test | [118] |
Dihydrodiosgenin | Inhibit HCC metastasis | Inhibit platelet activation and reduce endothelial cell-derived factor VIII | In vitro and in vivo test | [119] |
Poly (adenosine diphosphate–ribose) polymerase (PARP) inhibitor (PARPI) | Up-regulate PD-L1 | Promoting the activation of IFN pathway, Up-regulate PD-L1 | Preclinical trial | |
The combination of PARPI and mitogen-activated protein kinase (MEK) inhibitor | TME | Induces BIM-mediated apoptosis by activating caspase-3, inhibits the expression of CD31 in endothelial cells, and inhibits the production of mutant RAS-induced VEGF through RAS/MAPK pathway | In vitro and in vivo test | [122] |
Sorafenib combined with bufalin | Angiogenesis | mTOR/VEGF signal pathway | In vitro and in vivo test | [123] |
Ginsenoside Rg3 combined with cisplatin | TME | EMT | In vitro and in vivo test | [124] |