角糖作为药物包覆气球的新型药物载体

Emily A. Turner, L. Burnett, S. Yazdani
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引用次数: 1

摘要

药物包被气球(DCB)代表了一种开发外周动脉疾病(PAD)优越干预治疗的新方法。目前,DCB包被抗增生性药物,以对抗内膜增生,减少再狭窄的发生。常见的抗增殖药物是紫杉醇,当单独包衣时,由于其在部署后从治疗动脉扩散,其保留率非常低。赋形剂略微改善了紫杉醇滞留,但24小时后滞留率仍低于10%。角糖是一种从人类头发中提取的角蛋白,由于其固有的支架特性和生物相容性,是一种潜在的辅料选择。角化糖水凝胶支持各种药物和因子的可调释放,作为角化糖浓度的功能。因此,本项目的目的是评估角化糖在DCB中作为紫杉醇赋形剂的能力。简而言之,形成了各种含紫杉醇的角化糖水凝胶。分别用分光光度法和HPLC-MS/MS法测定45 d内角化糖降解和紫杉醇释放量。为了确认角化糖形成DCB的能力,角化糖水凝胶采用浸渍技术涂覆在血管成形术气球上。角化DCB切片,光镜下定量涂层厚度。结果表明,紫杉醇-角化糖水凝胶降解并释放紫杉醇是角化糖浓度的函数。角化DCB呈均匀的周向涂层,涂层厚度在5 ~ 20微米之间。这些研究强调了一种新的生物材料的潜力,这种材料可以提供一种安全可控的药物释放谱,用于治疗PAD。
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Keratose as a Novel Drug Carrier for Drug Coated Balloons
Drug coated balloons (DCB) represent a novel approach to develop a superior intervention for the treatment of peripheral artery disease (PAD). Currently, DCB are coated with anti-proliferative drugs which combat neointimal hyperplasia reducing the occurrence of restenosis. The common anti-proliferative drug is paclitaxel, which when coated alone has very poor retention rates due to its diffusion from the treated artery following deployment. Excipients have marginally improved paclitaxel retention however retention rates are still less than 10% 24-hours post-treatment. Keratose, an extracted form of keratin derived from human hair, is a potential option for an excipient due to its intrinsic scaffolding characteristics and biocompatibility. Keratose hydrogels support tunable release of various drugs and factors as a function of keratose concentration. Therefore, the goal of this project is to evaluate the ability of keratose to act as an excipient of paclitaxel in DCB. Briefly, various paclitaxel-containing keratose hydrogels were formed. Keratose degradation and paclitaxel release were quantified up to 45 days by spectrophotometry and HPLC-MS/MS respectively. To confirm the ability of keratose to form a DCB, keratose hydrogels were coated on angioplasty balloons using a dipping technique. The keratose DCB was sectioned and coating thickness was quantified by light microscopy. Results demonstrated that paclitaxel-keratose hydrogels degraded and released paclitaxel as a function of keratose concentration. The keratose DCB displayed uniform coating circumferentially with coating thicknesses ranging from 5-20 microns. These studies highlight the potential of a new biomaterial that can provide a safe and controllable drug release profile for treatment of PAD.
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