Department of Physiology and Cell Biology, Ben-Gurion University of the Negev, Beer Sheva 8443944, Israel.
Viruses. 2022 Mar 21;14(3):648. doi: 10.3390/v14030648.
Obtaining an understanding of the mechanism underlying the interrelations between the structure and function of HIV-1 is of pivotal importance. In previous decades, this mechanism was addressed extensively in a variety of studies using conventional approaches. More recently, atomic force microscopy, which is a relatively new technique with unique capabilities, has been utilized to study HIV-1 biology. Atomic force microscopy can generate high-resolution images at the nanometer-scale and analyze the mechanical properties of individual HIV-1 virions, virus components (e.g., capsids), and infected live cells under near-physiological environments. This review describes the working principles and various imaging and analysis modes of atomic force microscopy, and elaborates on its distinctive contributions to HIV-1 research in areas such as mechanobiology and the physics of infection.
了解 HIV-1 结构与功能之间相互关系的基础机制至关重要。在过去的几十年中,许多研究广泛地探讨了这一机制,使用的方法多种多样。最近,原子力显微镜作为一种具有独特功能的新技术,已被用于研究 HIV-1 生物学。原子力显微镜可以在纳米尺度上生成高分辨率的图像,并分析单个 HIV-1 病毒、病毒成分(例如衣壳)以及在接近生理环境下感染的活细胞的机械性能。本综述介绍了原子力显微镜的工作原理和各种成像及分析模式,并详细阐述了其在机械生物学和感染物理学等领域对 HIV-1 研究的独特贡献。