Forces of Change: Optical Tweezers in Membrane Remodeling Studies.

IF 2.3 4区 生物学 Q3 BIOCHEMISTRY & MOLECULAR BIOLOGY Journal of Membrane Biology Pub Date : 2022-12-01 DOI:10.1007/s00232-022-00241-1
Sudheer K Cheppali, Raviv Dharan, Raya Sorkin
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引用次数: 4

Abstract

Optical tweezers allow precise measurement of forces and distances with piconewton and nanometer precision, and have thus been instrumental in elucidating the mechanistic details of various biological processes. Some examples include the characterization of motor protein activity, studies of protein-DNA interactions, and characterizing protein folding trajectories. The use of optical tweezers (OT) to study membranes is, however, much less abundant. Here, we review biophysical studies of membranes that utilize optical tweezers, with emphasis on various assays that have been developed and their benefits and limitations. First, we discuss assays that employ membrane-coated beads, and overview protein-membrane interactions studies based on manipulation of such beads. We further overview a body of studies that make use of a very powerful experimental tool, the combination of OT, micropipette aspiration, and fluorescence microscopy, that allow detailed studies of membrane curvature generation and sensitivity. Finally, we describe studies focused on membrane fusion and fission. We then summarize the overall progress in the field and outline future directions.

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变化的力量:膜重构研究中的光学镊子。
光镊允许以皮牛顿和纳米精度精确测量力和距离,因此在阐明各种生物过程的机械细节方面发挥了重要作用。一些例子包括运动蛋白活性的表征,蛋白质- dna相互作用的研究,以及蛋白质折叠轨迹的表征。然而,使用光学镊子(OT)来研究膜却少得多。在这里,我们回顾了利用光镊对膜的生物物理研究,重点介绍了各种已经开发的检测方法及其优点和局限性。首先,我们讨论了使用膜涂覆珠的分析,并概述了基于此类珠的操作的蛋白质-膜相互作用研究。我们进一步概述了一系列研究,这些研究利用了一种非常强大的实验工具,结合了OT、微移管吸吸和荧光显微镜,可以详细研究膜曲率的产生和灵敏度。最后,我们介绍了膜融合和裂变方面的研究。然后,我们总结了该领域的总体进展,并概述了未来的方向。
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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来源期刊
Journal of Membrane Biology
Journal of Membrane Biology 生物-生化与分子生物学
CiteScore
4.80
自引率
4.20%
发文量
63
审稿时长
6-12 weeks
期刊介绍: The Journal of Membrane Biology is dedicated to publishing high-quality science related to membrane biology, biochemistry and biophysics. In particular, we welcome work that uses modern experimental or computational methods including but not limited to those with microscopy, diffraction, NMR, computer simulations, or biochemistry aimed at membrane associated or membrane embedded proteins or model membrane systems. These methods might be applied to study topics like membrane protein structure and function, membrane mediated or controlled signaling mechanisms, cell-cell communication via gap junctions, the behavior of proteins and lipids based on monolayer or bilayer systems, or genetic and regulatory mechanisms controlling membrane function. Research articles, short communications and reviews are all welcome. We also encourage authors to consider publishing ''negative'' results where experiments or simulations were well performed, but resulted in unusual or unexpected outcomes without obvious explanations. While we welcome connections to clinical studies, submissions that are primarily clinical in nature or that fail to make connections to the basic science issues of membrane structure, chemistry and function, are not appropriate for the journal. In a similar way, studies that are primarily descriptive and narratives of assays in a clinical or population study are best published in other journals. If you are not certain, it is entirely appropriate to write to us to inquire if your study is a good fit for the journal.
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