微乳液
透皮
Zeta电位
溶解度
蒸馏水
材料科学
粒径
纳米技术
色谱法
渗透(战争)
化学
药理学
肺表面活性物质
化学工程
医学
纳米颗粒
有机化学
工程类
运筹学
作者
Jing You,Shu Meng,Ying-Kai Ning,Liqun Yang,Xiaowei Zhang,Hui-Ning Wang,Jingjing Li,Fang-Ming Yin,Jing Liu,Ziyi Zhai,Bing Li,Jun-Chao Fan,Zai-Xing Chen
标识
DOI:10.1016/j.jddst.2019.101331
摘要
Abstract The aim of the study is to provide a new type of drug delivery, combining the advantages of a microemulsion with the transdermal administration of osthole. Appropriate oil phases, surfactants, and cosurfactants were screened by their solubility, transmittance, etc. The appropriate microemulsion ratio formula was selected by measuring the area of the formed microemulsion region from the pseudoternary phase diagram among the different proportions. After measuring the pH, zeta potential, particle size, etc., a 2% osthole drug-containing microemulsion was prepared, and transdermal experiments were performed using a Franz cell. To select a microemulsion formula with high stability and a high skin transmittance rate, 65% distilled water (w/w) was embedded into the microemulsion (7% IPM (w/w), 14% Tween 80 (w/w) and 14% Labrasol (w/w)), and the microemulsion gel was made with different proportions of carbomer. The structure, water content and molecular stability of the microemulsion gels were measured by TEM and DSC. Transdermal experiments were then performed using Franz cells, and these microemulsion gels were applied to determine the subcutaneous residual amounts and optimal skin penetration microemulsion formulations. Thereby, the best microemulsion gel formulation was selected.
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