Anticancer Research · 2018 · 11 citations · 14 references
PharmacyPharmaceuticsPharmacologyDrug DeliveryNanoparticle Drug DeliveryPolymer ChemistryCancer Drug DeliveryDrug EncapsulationNanocarriers For TherapeuticsNanoparticle FormulationsPolymeric Carrier SystemsPolymeric Drug Delivery SystemsDrug Delivery NanocarriersDrug-loaded MicellesMicelle Drug DeliveryMicellesPhysicochemical PropertiesPolymer MicellesPolymeric MicellesPolymeric Nanocarriers
BACKGROUND/AIM: Polymeric micelles are promising vehicles for paclitaxel delivery. Further improvement in the stability of the micelle formulation is desirable. MATERIALS AND METHODS: Monomethoxy poly(ethylene glycol)-block-poly(D,L-lactide)-9-fluorenylmethoxycarbonyl-L-phenylalanine (mPEG-PDLLA-Phe(Fmoc)) was synthesized through a classical esterification reaction. Paclitaxel-loaded mPEG-PDLLA-Phe(Fmoc) micelles (PTX-PheMs) were prepared by the self-assembly method. Composition, structure and physicochemical properties were characterized. Pharmacokinetics were evaluated in rats. Therapeutic effect was evaluated in tumor-bearing mice. Safety profile was assessed by a hemolysis assay and an acute-toxicity study. RESULTS: The average size of PTX-PheMs was about 45 nm. The hemolysis and acute-toxicity tests confirmed its biocompatibility and safety. The pharmacokinetics and therapeutic effect experiments demonstrated its long circulation property and superior antitumor effect. CONCLUSION: mPEG-PDLLA-Phe(Fmoc) micelle is a biocompatible and effective drug delivery system for hydrophobic drugs such as PTX.
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William J. Gradishar, Sergei Tjulandin, Neville Davidson et al. · Journal of Clinical Oncology · 2005 · 2.1K citations · Full text
Pharmacy, Oncology, Pharmacology +15