Sources | Membrane modification | Cargoes | Loading methods | Therapeutic applications | Refs. | |
---|---|---|---|---|---|---|
HEK293T | CD47 overexpression | Erastin (Er) and Rose Bengal (RB) | Ultrasonic + electroporation | Avoided vesicles by macrophages phagocytosis, enhance blood circulation ability | Combined with iron death inducer and photosensitizer | [34] |
CT26 | CD47 overexpression | ICG and R837 were loaded with heat-sensitive liposomes | Freeze thawing | Photothermal therapy combined with immunoadjuvant | [27] | |
3T3 | CD47 overexpression | Docetaxel + GM-CSF | Freeze thawing | In combination with chemotherapy | [35] | |
4T1 | Urokinase-type plasminogen activator (uPA) overexpression | PLGA nano-carrier loaded with anti-miRNA-21/antimiRNA-10b | Extrusion | Targeted receptors specifically expressed by tumor cells and binding to RNA for anti-tumor therapy | [36] | |
cbMSC-hTERT | Anti-GPC3 antibody | miR-26a mimic | Electroporation | miR-26a was effectively delivered to GPC3 expressing hepatocellular carcinoma (HCC) cells and inhibited tumor proliferation | [37] | |
Expi293 | Anti-CD3 + anti-HER2 antibody |  |  | Targeted tumor cells with high HER2 expression | As a bridge between T cells and HER2 positive tumor cells | [38] |
HEK293T | Anti-HER2 antibody | miR-HER2 | Transfection | Knocked down HER2 expression | [39] | |
HEK293T | Anti-HER2 antibody | HChrR6 mRNA | Transfection | HChrR6 converted prodrugs into cytotoxic drugs after being transported to tumor cells | [40] | |
HEK293T | EGF or HER2 affibody | photosensitizer (ICG)/DOX | Ultrasonic | Photodynamic therapy or in combination with chemotherapy drugs | [41] | |
MSCs | LAMP2b-DARPin chimeric protein (anti-HER2 antibody) | DOX | Electroporation | Combined with chemotherapy drugs to kill tumors | [42] | |
HEK293T | Anti-HER2 antibody | MiR-21i + 5-FU | Electroporation | Reversed drug resistance in the tumor | [43] | |
HEK293T | Anti-CD19-CAR | CRISPR/Cas9 | Electroporation | Accumulated in tumors and effectively released the CRISPR/Cas9 system targeting MYC oncogenes in vivo and in vitro | [30] | |
U937 | Anti-PSMA peptide | Pro-DOX agents activated by PSA | Extrusion | Targeted the tumor tissue and converted the drug to an active state at the tumor site | [44] | |
NSC | CXCR4 overexpression | Anti-miRNA-21/miRNA-100 | Microfluidics technology | Therapeutic RNA was loaded using microfluidic technology and targeted CXCR4 ligand with high expression in tumor cells | [45] | |
MSCs | CXCR4 overexpression | si-Survivin | Electroporation | Improved tumor targeting and carried siRNA to suppress overexpressed Survivin gene in tumors | [46] | |
HEK293T | T7 overexpression | Anti-mir-221 oligonucleotides (AMOs) | Electroporation | Binded tumor cells by transferrin inhibited upregulated miRNA in human brain tumor glioblastoma | [47] | |
cbMSCs | iRGD peptide | Anti-mir-221 oligonucleotides (AMOs) | Electroporation | Significantly enriched in the tumor site and had a good anti-tumor effect | [48] | |
HUVECs, HEK293T | TRAIL overexpression | Oxaliplatin (OXA) + hydroxychloroquine (HCQ) | Mixed with PLGA nanoparticles + extrusion | Targeted the tumor and induced tumor cell apoptosis, combined with autophagy drugs and autophagy inhibitors to kill the tumor | [49] | |
Raw264.7 | TRAIL overexpression | Triptolide (TPL) | Ultrasonic | Targeted the tumor and induced apoptosis, combined with chemotherapy drugs | [50] | |
MSCs | Cell penetrating peptide (CPP) and TNF-α overexpression |  |  | Anchored TNF-α to cell membranes, enhanced tumor targeting, and inhibited tumor growth under an external magnetic field | [51] | |
MDA-MB-231 | PD-1 overexpression | PARP inhibitor | Ultrasonic | Effectively prevented PD-L1 mediated T cell inhibition and provided powerful antitumor activity | [52] | |
DC2.4 + DC from human | αPD1 + MHC-I + B7 overexpression |  |  | Activated both natural and depleted T cells, significantly improved antigen delivery to lymphatic organs, and produced a broad-spectrum T cell response to eliminate established tumors | [53] | |
Expi293F | Anti-CD3 antibody + EGFR overexpression |  |  | Induced the cross-linking of T cells to EGFR-expressing breast cancer cells, and induced an effective antitumor immune response | [25] | |
E. coli DH5α | Human papillomavirus type 16 E7 protein overexpression |  |  | Induced an E7 antigen-specific cellular immune response and inhibited tumor growth | [54] | |
E. coli DH5α | BFGF overexpression |  |  | Persistent anti-BFGF autoantibodies were induced, which inhibited tumor angiogenesis and tumor growth | [55] | |
MDA-MB-231 | α-lactalbumin (α-LA) overexpression | Human neutrophil elastase (ELANE) + Hiltonol (TLR3 agonist) | Electroporation | Promoted the activation of cDC1s and showed strong antitumor activity | [56] | |
HEK293T | Hyaluronidase (PH20) overexpression | DOX | Electroporation | The immunomicroenvironment was changed from an immunosuppressive phenotype to an immunosupportive phenotype, which enhanced the delivery of chemotherapy drugs and improved the efficiency of tumor treatment | [57] | |
HEK293T | Prostaglandin F2 receptor negative regulator overexpression | Cholesterol conjugated ASOs STAT6 | Incubation | Targeted tumor-associated macrophages and induced tumor microenvironment remodeling and CD8 T cell-mediated adaptive immune response | [58] | |
RAW 264.7 | Vesicular stomatitis virus glycoprotein overexpression | Mouse si-PD-L1 | Electroporation | The PD-L1/PD-1 pathway was blocked, and T cell recognition and M1 macrophage repolarization were reconstructed | [26] | |
A549 | Â | miRNA-449a | Â | Carried the target RNAi through transcriptional transactivator protein (TAT) and the trans-activating response (TAR) | [59] |