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Applications of atomic force microscopy in modern biology

机译:原子力显微镜在现代生物学中的应用

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Single-molecule force spectroscopy (SMFS) is an emerging tool to investigate mechanical properties of biomolecules and their responses to mechanical forces, and one of the most-used techniques for mechanical manipulation is the atomic force microscope (AFM). AFM was invented as an imaging tool which can be used to image biomolecules in sub-molecular resolution in physiological conditions. It can also be used as a molecular force probe for applying mechanical forces on biomolecules. In this brief review, we will provide exciting examples from recent literature which show how the advances in AFM have enabled us to gain deep insights into mechanical properties and mechanobiology of biomolecules. AFM has been applied to study mechanical properties of cells, tissues, microorganisms, viruses as well as biological macromolecules such as proteins. It has found applications in biomedical fields like cancer biology, where it has been used both in the diagnostic phases as well as drug discovery. AFM has been able to answer questions pertaining to mechanosensing by neurons, and mechanical changes in viruses during infection by the viral particles as well as the fundamental processes such as cell division. Fundamental questions related to protein folding have also been answered by SMFS like determination of energy landscape properties of variety of proteins and their correlation with their biological functions. A multipronged approach is needed to diversify the research, as a combination with optical spectroscopy and computer-based steered molecular dynamic simulations along with SMFS can help us gain further insights into the field of biophysics and modern biology.
机译:单分子力光谱(SMFS)是研究生物分子的机械性能及其对机械力的响应的新兴工具,机械操纵最常用的技术之一是原子力显微镜(AFM)。 AFM是作为成像工具发明的,可用于在生理条件下在亚分子分辨率中成像生物分子。它也可以用作在生物分子上施加机械力的分子力探针。在这篇简短的综述中,我们将提供最近的文献中的激动人心的例子,这些例子表明AFM的进步如何使我们能够深入了解生物分子的机械性能和机械生物学。 AFM已应用于研究细胞,组织,微生物,病毒以及生物大分子(例如蛋白质)的机械性能。它在癌症生物学等生物医学领域中发现了应用,在诊断阶段和药物发现中都被使用。 AFM能够回答与神经元的机械感应有关的问题,以及病毒颗粒感染期间病毒的机械变化以及细胞分裂等基本过程。与蛋白质折叠相关的基本问题也通过SMF的回答,例如确定各种蛋白质的能量景观特性及其与其生物学功能的相关性。需要采用多收益的方法来使研究多样化,因为与光谱和基于计算机的转向分子动态模拟以及SMF的结合可以帮助我们进一步了解生物物理学和现代生物学领域。

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