Ichimura Taro, Kakizuka Taishi, Sato Yuki, Fujioka Yoichiro, Ohba Yusuke, Horikawa Kazuki, Nagai Takeharu
Transdimensional Life Imaging Division, Institute for Open and Transdisciplinary Research Initiatives, Osaka University, Suita, Osaka 565-0871, Japan.
Department of Biomolecular Science and Engineering, SANKEN, Osaka University, Ibaraki, Osaka 567-0047, Japan.
Biophys Physicobiol. 2024 Mar 23;21(Supplemental):e211017. doi: 10.2142/biophysico.bppb-v21.s017. eCollection 2024.
Singularity biology is a scientific field that targets drastic state changes in multicellular systems, aiming to discover the key cells that induce the state change and investigate the mechanisms behind them. To achieve this goal, we developed a trans-scale optical imaging system (trans-scale scope), that is capable of capturing both macroscale changes across the entire system and the micro-scale behavior of individual cells, surpassing the cell observation capabilities of traditional microscopes. We developed two units of the trans-scale scope, named AMATERAS-1 and -2, which demonstrated the ability to observe multicellular systems consisting of over one million cells in a single field of view with sub-cellular resolution. This flagship instrument has been used to observe the dynamics of various cell species, with the advantage of being able to observe a large number of cells, allowing the detection and analysis of rare events and cells such as leader cells in multicellular pattern formation and cells that spontaneously initiate calcium waves. In this paper, we present the design concept of AMATERAS, the optical configuration, and several examples of observations, and demonstrate how the strength-in-numbers works in life sciences.
奇点生物学是一个针对多细胞系统中剧烈状态变化的科学领域,旨在发现引发状态变化的关键细胞,并研究其背后的机制。为实现这一目标,我们开发了一种跨尺度光学成像系统(跨尺度显微镜),它能够捕捉整个系统的宏观变化以及单个细胞的微观行为,超越了传统显微镜的细胞观察能力。我们开发了跨尺度显微镜的两个单元,分别命名为AMATERAS - 1和 - 2,它们展示了在单个视野中以亚细胞分辨率观察由超过一百万个细胞组成的多细胞系统的能力。这一旗舰仪器已被用于观察各种细胞种类的动态,其优势在于能够观察大量细胞,从而能够检测和分析罕见事件及细胞,如多细胞模式形成中的引导细胞以及自发引发钙波的细胞。在本文中,我们介绍了AMATERAS的设计理念、光学配置以及几个观察实例,并展示了数量优势在生命科学中的作用。