3D multiscale shape analysis of nuclei and in-vivo elastic stress sensors allows force inference.

IF 3.2 3区 生物学 Q2 BIOPHYSICS
Alejandro Jurado,Jonas Isensee,Arne Hofemeier,Lea Johanna Krüger,Raphael Wittkowski,Ramin Golestanian,Philip Bittihn,Timo Betz
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引用次数: 0

Abstract

The measurement of stresses and forces at the tissue level has proven to be an indispensable tool for the understanding of complex biological phenomena such as cancer invasion, embryo development or wound healing. One of the most versatile tools for force inference at the cell and tissue level are elastic force sensors, whose biocompatibility and tunable material properties make them suitable for many different experimental scenarios. The evaluation of those forces, however, is still a bottleneck due to the numerical methods seen in literature until now, which are usually slow and render low experimental yield. Here we present BeadBuddy, a ready-to-use platform for the evaluation of deformation and stresses from fluorescently labelled sensors within seconds. The strengths of BeadBuddy lie in the pre-computed analytical solutions of the elastic problem, the abstraction of data into Spherical Harmonics, and a simple user interface that creates a smooth workflow for force inference.
核的三维多尺度形状分析和体内弹性应力传感器允许力推断。
在组织水平上测量应力和力已被证明是理解复杂生物现象(如癌症侵袭、胚胎发育或伤口愈合)不可或缺的工具。弹性力传感器是细胞和组织水平上最通用的力推断工具之一,其生物相容性和可调的材料特性使其适用于许多不同的实验场景。然而,这些力的评估仍然是一个瓶颈,因为到目前为止,文献中所见的数值方法通常速度慢,实验良率低。在这里,我们提出了BeadBuddy,一个即用型平台,用于在几秒钟内评估荧光标记传感器的变形和应力。BeadBuddy的优势在于弹性问题的预计算解析解,将数据抽象为球面谐波,以及一个简单的用户界面,为力推理创建了一个平滑的工作流程。
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
Biophysical journal
Biophysical journal 生物-生物物理
CiteScore
6.10
自引率
5.90%
发文量
3090
审稿时长
2 months
期刊介绍: BJ publishes original articles, letters, and perspectives on important problems in modern biophysics. The papers should be written so as to be of interest to a broad community of biophysicists. BJ welcomes experimental studies that employ quantitative physical approaches for the study of biological systems, including or spanning scales from molecule to whole organism. Experimental studies of a purely descriptive or phenomenological nature, with no theoretical or mechanistic underpinning, are not appropriate for publication in BJ. Theoretical studies should offer new insights into the understanding ofexperimental results or suggest new experimentally testable hypotheses. Articles reporting significant methodological or technological advances, which have potential to open new areas of biophysical investigation, are also suitable for publication in BJ. Papers describing improvements in accuracy or speed of existing methods or extra detail within methods described previously are not suitable for BJ.
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