Optical microscopic imaging, manipulation, and analysis methods for morphogenesis research.

Takanobu A Katoh, Yohsuke T Fukai, Tomoki Ishibashi
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Abstract

Morphogenesis is a developmental process of organisms being shaped through complex and cooperative cellular movements. To understand the interplay between genetic programs and the resulting multicellular morphogenesis, it is essential to characterize the morphologies and dynamics at the single-cell level and to understand how physical forces serve as both signaling components and driving forces of tissue deformations. In recent years, advances in microscopy techniques have led to improvements in imaging speed, resolution and depth. Concurrently, the development of various software packages has supported large-scale, analyses of challenging images at the single-cell resolution. While these tools have enhanced our ability to examine dynamics of cells and mechanical processes during morphogenesis, their effective integration requires specialized expertise. With this background, this review provides a practical overview of those techniques. First, we introduce microscopic techniques for multicellular imaging and image analysis software tools with a focus on cell segmentation and tracking. Second, we provide an overview of cutting-edge techniques for mechanical manipulation of cells and tissues. Finally, we introduce recent findings on morphogenetic mechanisms and mechanosensations that have been achieved by effectively combining microscopy, image analysis tools and mechanical manipulation techniques.

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用于形态发生研究的光学显微成像、操作和分析方法。
形态发生是一个发育过程,它通过复杂而合作的细胞运动塑造多细胞生物体。要了解遗传程序和由此产生的多细胞形态发生之间复杂的相互作用,就必须在单细胞水平上描述形态和动力学特征,并了解物理力如何既是组织变形的信号成分,又是组织变形的驱动力。近年来,显微镜技术的进步提高了成像速度、分辨率和深度。与此同时,各种软件包的开发也支持对具有挑战性的图像进行大规模的单细胞级分析。虽然这些工具加快了对形态发生过程中单细胞级动力学和机械过程的全面检查,但复杂的整合需要更多的专业知识。在此背景下,本综述对这些技术进行了实用性概述。首先,我们介绍多细胞成像的显微技术和图像分析软件工具,重点是细胞分割和跟踪。其次,我们概述了对细胞和组织进行机械操作的尖端技术。最后,我们介绍了通过有效结合显微镜、图像分析工具和机械操作技术而实现的形态发生机制和机械感应的最新研究成果。小摘要 在本综述中,我们将介绍多细胞成像和图像分析工具。我们还概述了对细胞和组织进行机械操作的最新技术,并举例说明了这些工具和技术的结合如何有助于阐明形态发生背后的机械生物学问题。
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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