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Antibody-based nanotechnology

机译:基于抗体的纳米技术

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摘要

Antibodies are considered the hallmark of the adaptive immune system in that they mediate various key biological functions, such as direct neutralization and recruitment of effector immune cells to eliminate invading pathogens. Antibodies exhibit several unique properties, including high diversity (enabling binding to a wide range of targets), high specificity and structural integrity. These properties and the understanding that antibodies can be utilized in a wide range of applications have motivated the scientific community to develop new approaches for antibody repertoire analysis and rapid monoclonal antibody discovery. Today, antibodies are key modules in the pharmaceutical and diagnostic industries. By virtue of their high affinity and specificity to their targets and the availability of technologies to engineer different antibodies to a wide range of targets, antibodies have become the most promising natural biological molecules in a range of biotechnological applications, such as: highly specific and sensitive nanobiosensors for the diagnostics of different biomarkers; nanoparticle-based targeted drug delivery systems to certain cells or tissues; and nanomachines, which are nanoscale mechanical devices that enable energy conversion into precise mechanical motions in response to specific molecular inputs. In this review, we start by describing the unique properties of antibodies, how antibody diversity is generated, and the available technologies for antibody repertoire analysis and antibody discovery. Thereafter, we provide an overview of some antibody-based nanotechnologies and discuss novel and promising approaches for the application of antibodies in the nanotechnology field. Overall, we aim to bridge the knowledge gap between the nanotechnology and antibody engineering disciplines by demonstrating how technological advances in the antibody field can be leveraged to develop and/or enhance new technological approaches in the nanotechnology field.
机译:抗体被认为是适应性免疫系统的标志,因为它们介导各种关键的生物学功能,例如直接中和和募集效应免疫细胞以消除入侵病原体。抗体表现出几种独特的性质,包括高多样性(能够与各种靶标有结合),特异性和结构完整性。这些性质和理解可以在广泛的应用中使用抗体具有促进科学界的抗体曲目分析和快速单克隆抗体发现的新方法。如今,抗体是制药和诊断行业的关键模块。凭借其对其目标的高亲和力和特异性以及将技术的可用性与各种抗体进行工程,抗体,抗体已成为一系列生物技术应用中最有前景的天然生物分子,例如:高度特异和敏感用于不同生物标志物的诊断的纳米极收人;基于纳米粒子的靶向药物递送系统到某些细胞或组织;和纳米载体是纳米级机械装置,使能量转化为响应特定分子投入的精确机械运动。在本文中,我们首先描述抗体的独特性质,如何产生抗体多样性,以及抗体曲目分析和抗体发现的可用技术。此后,我们提供了一些基于抗体的纳米技术的概述,并讨论了在纳米技术领域中施用抗体的新颖和有前途的方法。总的来说,我们的目标是通过证明如何利用抗体场的技术进步来实现纳米技术和抗体工程学科之间的知识差距来开发和/或增强纳米技术领域的新技术方法。

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