Contents of cancer-derived EVs | Tumour type | EV donor (From) | EV recipient (To) | Functions of EVs on the CAF properties | Reference |
---|---|---|---|---|---|
Proteins | From | To | |||
Integrins | Breast cancer Pancreatic cancer | Cancer cells | CAFs | Up-regulates S100 gene expressions and promote cell qrowth and migration | [7] |
TGF-β | Bladder cancer | Generate CAFs by activating SMAD-dependent pathway | [72] | ||
Integlin αv and β1 | Breast cancer | Integrin αv and β1 are enriched in CD63-positive EVs and induce CAF-like phenotypes in the fibroblasts. Galectin-3 might regulate the loading integrin αv and β1 in EVs. | [176] | ||
ITGB4 | Breast cancer | Induces BCL2 interacting protein 3 like (BNIP3L)-dependent mitophagy and glycolysis. | [33] | ||
Sphingosine 1 | Breast cancer | Sphingosine 1 drived from cancer cells may stimulate ERK-1/2 signalling and DNA synthesis | [73] | ||
Survivin | Breast cancer | Generate CAFs with myofibroblastic features through inducing SOD1 expression to promote tumour proliferation and metastasis | [74] | ||
Wnt2B | Cervical cancer | Generate CAFs through activating Wnt/β-catenin signalling | [75] | ||
HSPC111 | Colorectal cancer | Reprogramming lipid metabolism in CAFs to promote cancer metastasis. | [180] | ||
TIMP-1 | Colorectal cancer | Cancer-derived EVs transfer TIMP-1 to induced ECM remodelling in the fibroblasts. | [178] | ||
LMP1 | Epstein-Barr virus (EBV)-associated Nasopharyngeal carcinoma | Generate CAFs through NF-κB signalling and change aerobic glycolysis and autophagy in CAFs | [76] | ||
PKM2 | Gastric cancer | Generate CAFs by PKM2 nuclear translocation inducing NF-κB signalling | [77] | ||
TGF-β | Head and neck squamous cell carcinoma | Generate CAFs through activation canonical TGF-β signalling pathway | [32] | ||
PKM2 | Hypoxic resistant lung cancer cells | Induce metabolic reprogramming in CAFs | [78] | ||
IGF2 | Liver cancer | Fluid shear stress-induced cancer cell medium promoted the activation and proliferation of CAFs via activating PI3K/AKT signaling pathway. | [172] | ||
α-SMA | Lung cancer | Cancer-derived EV transfer α-SMA in both lung cancer cell line and fibroblasts. These EVs also promote cell proliferation and inhibit apoptosis. | [79] | ||
TGF-β | Malignant ascite from gastriccancer and ovarian cancer | TGF-β in EVs may induce CAF phenotypes in peritonieal mesothelial cells | [80] | ||
HSP90 and p-IKKα/β complex | Melanoma | Promote the proangiogenic capacity via activating NF-κB signalling to induce CXCL1 expression in CAFs. | [173] | ||
TGF-β | Mesothelioma Colorectal cancer Prostate cancer Bladder cancer | Triger the myofibroblast differen-tiation | [30] | ||
FAP and EBV-encoded latent membrane protein 1 (LMP1) | Nasopharyngeal carcinoma | Generate CAFs via enhancing YAP1 signalling and increasing FAP expression. | [177] | ||
COL6A1 | Osteosarcoma | COL6A1-positive EVs generate CAFs expressing interleukins, α-SMA, and TGF-β | [81] | ||
Gain-of-function p53 | Ovarian cancer | Instigate CAF phenotypes in fibroblasts through the Nrf2-dependent pathway | [39] | ||
Annexin A1 | Pancreatic cancer | Induce myofibroblasts features in the fibroblasts and endothelial cells | [82] | ||
Lin28B | Pancreatic cancer | Generate CAFs from pancreatic stellate cells through activating let-7/HMGA2/PDGFRβ axis. | [83] | ||
Hyal1 | Prostate cancer | Stimulate fibroblast chemotaxis by the increased adhesion and activating FAK signalling. | [84] | ||
TGF-β | Prostate cancer | Triger the myofibroblast differen-tiation and promote cancer growth and angiogenesis | [31] | ||
C-terminal Dsg2 | Squamous cell carcinoma | Dsg2-positive EVs activate Erk1/2 signalling and promote cell proliferation in fibroblasts. | [85] | ||
Coding RNAs | From | To | |||
Inflammation-inducing mRNAs | Melanoma | Cancer cells | CAFs | Induce CAF subtype with inflammatory signatures in within metastatic niche | [47] |
non-coding of transposable RNAs | From | To | |||
miR-105 | Breast cancer | Cancer cells | CAFs | Reprogram glucose and glutamine metabolism to fuel adjacent cancer cells | [34] |
miR-105 and miR-204 | Breast cancer | Cancer-derived EVs might transfer miR-105 and miR-204 and suppress RAGC expression in fibroblasts. | [175] | ||
miR-122 | Breast cancer | Down-regulates glucose consumption of fibroblasts | [63] | ||
miR-125b | Breast cancer | Generates CAFs from resident fibroblasts through targeting TP53INP1 expression | [43] | ||
miR-130b-3p | Breast cancer | Generate CAFs via targeting SPIN90 in fibroblasts and facilitate cancer progression. | [179] | ||
miR-185-5p, miR-652-5p, and miR-1246 | Breast cancer | Three miRNAs in cancer-derived EVs can be involved in the induction of CAF phenotypes in normal fibroblasts. | [171] | ||
miR-370-3p | Breast cancer | Induce fibroblast activation through CYLD/NF-κB signalling and promote cancer progression | [86] | ||
Decreased miR-34c | Cholangiocarcinoma | Enhancing Wnt1 expression in fibroblasts and generate CAFs. miR-34 directly target Wnt1 expression. | [87] | ||
miR-146a | Chronic lyphocytic leukaemia | Generate CAFs by targeting USP16 expression in fibroblasts | [88] | ||
miR-10a | Colorectal cancer (SW480 cell line) | Inhibit migration and expression of IL-6 and IL-8 expression in fibroblasts | [89] | ||
miR-1249-5p, miR-6737-5p, and miR-6819-5p | Colorectal cancer | EVs derived from cancer cells with p53 shRNA genrate CAFs. miRNAs in EVs may contribute to induction of CAF phenotype in fibroblasts. | [44] | ||
miR-146a-5p and miR-155-5p | Colorectal cancer | Generate CAFs via targeting SOCS1 and ZBTB2 to activate JAK2-STAT3/NF-κB signalling. CXCL12/CXCR7 is associated with these miRNA expressions in cancer cells. | [181] | ||
miR-200 family | Colorectal cancer | CRC cells with an epithelial phenotype but not a mesenchymal phenotype secrete miR-200 family members via EVs to attenuate TGF-β-mediated CAF features by targeting ZEB1 in normal fibroblasts. | [45] | ||
miR-4534 | Colorectal cancer | Suppress autophagy to induce CAF phenotypes in fibroblasts. EV miR-4534 targets ATG2B expression. | [182] | ||
miR-27a | Gastric cancer | Generate CAFs to support cancer migration and invasion. | [90] | ||
Several miRNAs including miR-193b | Gastric cancer | Induce CAF subtype with inflammatory signatures | [46] | ||
miR-192, miR-215 | Head and neck squamous cell carcinoma | Generate CAFs through targeting CAV1 to induce TGF-β/SMAD signalling | [91] | ||
miR-9-5p | Head and neck squamous cell carcinoma | HPV-positive head and neck squamous cell carcinoma cells secrete miR-9-5p via EVs. EV miR-9-5p suppresses NOX4 expression to inhibit the induction of TGF-β-mediated CAF phenotype in fibroblasts. | [174] | ||
miR-21 | Hepatocellular carcinoma | Generate CAFs from hepatocyte stellate cells through activating PDK1/Akt signalling | [92] | ||
miR-1247-3p | Hepatocellular carcinoma | Generate CAFs expressing inflammatory genes through targeting B4GALT3 to activate β1 integlin/NF-κB signalling | [49] | ||
miR-181d-5p | Hepatoma cell | May induce CAF state via targeting SOCS3 expression in bone-marrow stem cells (BMSCs) | [93] | ||
miR-3473b | Lewis lung carcinoma | Generate inflammatory gene expressing CAFs through activationg NF-κB singnalling | [94] | ||
miR-142-3p | Lung cancer | EVs derived from cancer cells with miR-142-3p over-expression generate CAFs via non-canonical TGF-β signalling | [96] | ||
miR-210 | Lung cancer | Generate CAFs expressing proangiogenic factors through activating JAK2/STAT3 signalling | [95] | ||
lncRNA Gm26809 | Melanoma | Generate CAF properties in NIH3T3 fibroblasts | [97] | ||
miR-155 | Melanoma | Generate CAFs expressing proangiogenic factors through inhibiting SOCS1 to activate JAK2/STAT3 signalling | [99] | ||
miR-155 and miR-210 | Melanoma | Increase aerobic glycolysis and decrease oxidative phosphorylation in fibroblasts. | [98] | ||
miR-375 | Merkel cell carcinoma | Generate CAFs through targeting RBPJ and p53 expression | [100] | ||
miR-21 | Mouse melanoma cell | Promote the invasion activity of fibroblasts through targeting TIMP-3 expression | [101] | ||
lncRNA (LncRNA-CAF) | Oral squamous cell carcinoma | Stimulate IL-33 expression and CAF phenotypes in fibroblasts to influence CAF generation from other surrounding fibroblasts and promotes tumour growth | [102] | ||
miR-630 | Ovarian cancer | Generate CAFs through targeting KLF6 and activating NF-κB signalling pathway | [103] | ||
miR-155 | Pancreatic cancer | Induce cancer-associated fibroblast like phenotype through repressing TP53P1 | [104] | ||
Several miRNAs including miR-1246 and miR-1268 | Rhabdomyosarcoma | Rhabdomyosarcoma-derived EVs promote cell growth and stimulate angiogenic capacities in fibroblasts | [105] | ||
Others | From | To | |||
Not investigated | Bladder cancer | Cancer cells | CAFs | Cancer-derived EVs induce inflammatory CAFs (iCAFs) | [48] |
miR-1246, TGF-β, β-catenin, IL-6, p-STAT3 | Colorectal cancer | Cancer-derived EVs generate CAFs. But the precise mechanism of how molecules in EVs induce CAF signatures in fibroblasts is not addressed. | [108] | ||
Not investigated | Colorectal cancer | Stimulate migration capacity of CAFs via activating Rho-Fak signalling | [106] | ||
Not investigated | Colorectal cancer | Cancer-derived EVs generate CAFs to acquire the capacity to invade matrix and to support cancer invasion. | [107] | ||
Not investigated | Experimentally induced cancer stem cells (Piwil2-CSC) | Generate CAFs and enhance cell migration and invasion in CAFs. | [109] | ||
Not investigated | Gastric cancer | Generate CAFs from pericytes through activating PI3K/AKT and MEK/ERK signalling pathways | [110] | ||
Not investigated | Gastric cancer | Generate CAFs through canonical TGF-β signalling pathway | [111] | ||
Not investigated | Lung cancer | Mediate immunomodulate effect via inducing PD-L1 | [112] | ||
Not investigated | Lung cancer | Cancer cells with TP53 mutation mediate the integrin trafficking in the fibroblasts via EVs and promote the deposition of invasive ECMs | [38] | ||
Not investigated | Ovarian cancer | Cancer-derived EVs instigate cell adhesion and migration capacity in CAFs. | [67] | ||
Not investigated | Prostate cancer | Cancer-derived EVs stimulate prometastatic factors including brain-derived neurotrophic factor and CXCL12. | [113] | ||
Not investigated | Salivary adenoid cystic carcinoma | Induce the capacity to enhance cancer invasion and NGF expression in human periodontal ligament fibroblasts. | [114] |