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用于仿生学和生物技术应用的树突状平台。

Dendritic platforms for biomimicry and biotechnological applications.

机构信息

a Amity Institute of Pharmacy , Amity University , Noida , India.

b Department of Biotechnology , Lovely Professional University , Jalandhar , India.

出版信息

Artif Cells Nanomed Biotechnol. 2018;46(sup1):861-875. doi: 10.1080/21691401.2018.1438451. Epub 2018 Feb 15.

Abstract

Dendrimers, commonly referred to as polymeric trees, offer endless opportunities for biotechnological and biomedical applications. By controlling the type, length, and molecular weight of the core, branches and end groups, respectively, the chemical functionality and topology of dendrimeric archetypes can be customized which further can be applied to achieve required solubility, biodegradability, diagnosis and other applications. Given the physicochemical variability of the dendrimers and their hybrids, this review attempts to discuss a full spectrum of recent advances and strides made by these "perfectly designed structures". An extensive biotech/biomimicry application profiling of dendrimers is provided with focus on complex archetypical designs such as protein biomimicry (angiogenic inhibitors, regenerative hydroxyapatite and collagen) and biotechnology applications. In terms of biotechnological advances, dendrimers have provided distinctive advantages in the fields of biocatalysis, microbicides, artificial lights, mitochondrial function modulation, vaccines, tissue regeneration and repair, antigen carriers and even biosensors. In addition, this review provides overview of the extensive chemo-functionalization opportunities available with dendrimers which makes them a perfect candidate for forming drug conjugates, protein hybrids, bio mimics, lipidic derivatives, metal deposits and nanoconjugates thereby making them the most multifunctional platforms for diverse biotechnological applications.

摘要

树状聚合物,通常被称为高分子树,为生物技术和生物医学应用提供了无尽的机会。通过控制核心、支链和端基的类型、长度和分子量,可以定制树状原型的化学功能和拓扑结构,从而进一步应用于实现所需的溶解性、生物降解性、诊断等应用。鉴于树状聚合物及其杂化物的物理化学可变性,本综述试图讨论这些“完美设计结构”所取得的一系列最新进展和进展。对树状聚合物进行了广泛的生物技术/仿生应用分析,重点介绍了复杂的原型设计,如蛋白质仿生(血管生成抑制剂、再生羟基磷灰石和胶原蛋白)和生物技术应用。在生物技术进展方面,树状聚合物在生物催化、杀微生物剂、人工照明、线粒体功能调节、疫苗、组织再生和修复、抗原载体甚至生物传感器等领域提供了独特的优势。此外,本综述还概述了树状聚合物所具有的广泛的化学功能化机会,这使得它们成为形成药物偶联物、蛋白质杂化物、生物模拟物、脂质衍生物、金属沉积物和纳米偶联物的理想候选物,从而使它们成为各种生物技术应用的最多功能平台。

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