Haidar Mohammad Karim, Eroglu Hakan
Department of Pharmaceutical Technology, Faculty of Pharmacy, Hacettepe University, Ankara, Turkey.
Department of Pharmaceutical Technology, Faculty of Pharmacy, Hacettepe University, P.O. Box: 06100, Ankara, Turkey.
Curr Top Med Chem. 2017;17(13):1564-1579. doi: 10.2174/1568026616666161222102641.
Nanofibers became one of the major research areas for drug delivery and tissue engineering applications in the last decade. Depending on the simplicity of the preparation method and high drug loading capacity, nanofibers provide many advantages for therapeutic perspectives. In addition, combined systems such as embedding nanoparticles into the nanofiber structures provide a second option for delivery of dual active ingredients in the same formulation. The release rate of the active ingredients can also be modified easily by the formulation parameters depending on the desired release time for treatment. Nanofibers systems are used for the delivery of antibiotics, anticancer drugs, analgesics, hemostatic agents and various proteins for tissue engineering purposes. In addition, various applications such as medical device coating also provide new insights for the clinical use of nanofibers. The most commonly used technique for preparation of nanofibers is the electrospinning, which provides feasibility background for scale up process from laboratory to the industrial applications. The main boundary for nanofibers is the limitations for systemic route. Nanofibers are mainly designed for the delivery of active ingredients for local purposes. Regardless of the therapeutic aim, nanofibers are also perfect 3 dimensional structures that are suitable for tissue regeneration. They provide matrix structure for cell regeneration especially in applications for wound healing. This review is mainly focused on the recent advances on the preparation of nanofibers, applications for drug delivery, tissue engineering and wound healing purposes.
在过去十年中,纳米纤维成为药物递送和组织工程应用的主要研究领域之一。基于制备方法的简便性和高载药量,纳米纤维在治疗方面具有诸多优势。此外,诸如将纳米颗粒嵌入纳米纤维结构的复合系统为在同一制剂中递送两种活性成分提供了另一种选择。活性成分的释放速率也可根据治疗所需的释放时间,通过制剂参数轻松调节。纳米纤维系统用于递送抗生素、抗癌药物、止痛剂、止血剂以及用于组织工程目的的各种蛋白质。此外,诸如医疗器械涂层等各种应用也为纳米纤维的临床应用提供了新的思路。制备纳米纤维最常用的技术是静电纺丝,它为从实验室规模扩大到工业应用提供了可行性背景。纳米纤维的主要局限在于全身给药途径的限制。纳米纤维主要设计用于局部递送活性成分。无论治疗目的如何,纳米纤维也是适合组织再生的完美三维结构。它们为细胞再生提供基质结构,尤其是在伤口愈合应用中。本综述主要关注纳米纤维制备、药物递送应用、组织工程和伤口愈合目的方面的最新进展。