Type of nanoparticles | Size | Major outcome | Targeting approach Passive or Active | Model ( In vivo, In vitro) | Type of cell line | Ref |
---|---|---|---|---|---|---|
Gold | 30Â nm | Well treatment effect on MFC tumor cell | Active | both | Mouse forestomach carcinoma cell | [100] |
Zinc | 200–700 nm | Increased apoptosis in AGS cell lines by enhancing pro-apoptotic/blocking anti-apoptotic proteins and arresting cell cycle | Passive | both | AGS gastric cancer cell | [106] |
Gold | 300-700Â nm | Increased apoptosis | Passive | In vitro | AGS cells | [101] |
Gold | 50-80Â nm | suppressed cell growth | Active | both | MKN7 and MKN74 | [108] |
Gold | 100Â nm | antitumor effects | Active | In vitro | AGS and L929 | [109] |
gold | 151Â nm | Detection of methylated RPRM DNA in patients with high sensitivity | Active | In vitro | KATO III | [110] |
gold | 128Â nm | induces apoptosis | Active | In vitro | AGS, SNU-5, and SNU-16 | [100] |
gold | 10–40 nm | enhanced cell apoptosis | Passive | In vitro | A549, HT29 and AGS | [111] |
gold | 50Â nm | suppressed tumor growth | Active | both | NCI-N87 | [112] |
gold | 20 to 30Â nm | Cytotoxicity effect | Passive | In vitro | MKN45, AGS, and KATO III | [113] |
gold | 5–60 nm | induce apoptosis | Passive | In vitro | AGS | [114] |
silver | 76Â nm | cytotoxic potential | Passive | In vitro | AGS | [103] |
silver | 22Â nm | apoptosis induction o | Passive | In vitro | AGS | [104] |
silver | 5–50 nm | induce apoptosis | Passive | In vitro | AGS | [115] |
silver | 20–50 nm | scavenging of free radicals and iron chelating activity | Passive | In vitro | AGS | [116] |
iron oxide | 67.3Â nm | Prevention of metastasis | Passive | both | SGC-7901 | [117] |
Lanthanide | 670Â nm | Â | Passive | In vitro | MKN45 and HeLa | [118] |
gold | 10, 20 and 40Â nm | decreased invasion activity | Passive | In vitro | SGC-7901 | [119] |
gold | 45.97 ± 4.67 nm | destroyed cell spindle morphology, ruptured cell 562 membranes | Passive | both | MCG803 | [120] |