Journal of Nanobiotechnology · 2019 · 69 citations · 24 references
PharmacyCancer BiologyOncologyDrug DeliveryNanomaterialsNanoparticle Drug DeliveryCancer NanomedicineDrug EncapsulationInorganic NanoparticlesNanomedicineNanoparticle Delivery SystemsNanoparticle DesignCancer NanotherapyEncapsulationIron Oxide NanoparticlesMesoporous Silica NanomaterialsMesoporous Silica Nanoparticle Co-deliveryMesoporous Silica NanoparticlesMultifunctional NanoparticlesNanoparticles
BACKGROUND: To improve the outcome of cancer treatment, the combination of multiple therapy models has proved to be effective and promising. Gas therapy (GT) and chemodynamic therapy (CDT), mainly targeting the mitochondrion and nucleus, respectively, are two emerging strategy for anti-cancer. The development of novel nanomedicine for integrating these new therapy models is greatly significant and highly desired. METHODS: to generate ROS, ·OH among which further triggers the decomposition of FeCO into CO, realizing the effective combination of chemodynamic therapy with gas therapy for the first time. RESULTS: to generate ROS, ∙OH among which further triggers the decomposition of FeCO into CO, realizing the effective combination of CDT and CDGT. The co-released ROS and CO do damage to DNA and mitochondria of various cancer cells, respectively. The mitochondrial damage can effectively cut off the ATP source required for DNA repair, causing a synergetic anti-cancer effect in vitro and in vivo. CONCLUSIONS: The combination of CDT and CDGT causing a synergetic anti-cancer effect in vitro and in vivo. The proposed therapy concept and nanomedicine designing strategy might open a new window for engineering high-performance anti-cancer nanomedicine.
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Otto Warbürg · Science · 1956 · 13.3K citations
Tumor-selective catalytic nanomedicine by nanocatalyst delivery
Minfeng Huo, Liying Wang, Yu Chen et al. · Nature Communications · 2017 · 1.3K citations · Full text