Nanobiotechnology and nanostructured therapeutic delivery systems

Nathan J. Castro, Jose Umanzor-Alvarez, Lijie Grace Zhang, M. Keidar
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引用次数: 4

Abstract

Pharmaceutical development and therapeutic delivery as they pertain to nanomedicine predominantly involve the use of nanometer-sized (1-100nm) structures or complexes comprised of two or more constituents whose goal is to deliver a specific therapeutic to a targeted site for localized treatment. This illustrates one of the predominant underlying paradigms in nanomedicine: increased efficacy through targeted therapeutic delivery. With the advent of nanobiotechnology the precisely targeted delivery of pharmaceuticals and therapeutic agents can be achieved through a myriad of approaches which can be delineated by the level of bio-activity beginning with the nano-scale dispersion of pharmaceuticals. The primary constituent of nano-scale medicinal complexes is the pharmaceutical itself with the other contributing as a uni-functional "vehicle" for transport; a bi-functional natural or synthetic biodegradable vesicle or "shell" for encapsulation and timed release; or multi-functional components which include surface modification of said vesicle/shells for target-specific binding and/or conjugated with a contrast or fluorescent agent for imaging and/or tracking of drug mobility. This review will focus on cutting-edge nanostructured drug delivery systems for various biomedical applications. In addition, nanobiotechnology and its role in mediating tissue regeneration will be introduced. Recent awarded patents and their role in nanotechnology and nanomedicine development will be discussed.
纳米生物技术和纳米结构治疗递送系统
与纳米医学相关的药物开发和治疗递送主要涉及使用纳米尺寸(1-100nm)结构或由两种或多种成分组成的复合物,其目标是将特定的治疗递送到靶向部位进行局部治疗。这说明了纳米医学中一个主要的潜在范例:通过靶向治疗递送来提高疗效。随着纳米生物技术的出现,药物和治疗剂的精确靶向递送可以通过无数的方法来实现,这些方法可以通过药物的纳米级分散开始的生物活性水平来描述。纳米级药物复合物的主要成分是药物本身,其他成分作为运输的单一功能“载体”;具有双重功能的天然或合成可生物降解的囊泡或“壳”,用于封装和定时释放;或多功能组分,其包括所述囊泡/壳的表面修饰,用于靶向结合和/或与造影剂或荧光剂偶联,用于成像和/或跟踪药物迁移。本文将重点介绍用于各种生物医学应用的尖端纳米结构给药系统。此外,还将介绍纳米生物技术及其在组织再生中的作用。将讨论最近获得的专利及其在纳米技术和纳米医学发展中的作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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