Method to study the single cell's time-variation adhesion strength during the manipulation inside ESEM

Yajing Shen, M. Nakajima, Z. Najdovski, Zhan Yang, M. Kojima, S. Kojima, M. Homma, T. Fukuda
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Abstract

The cell adhesion force to the substrate is important for the cell manipulation. In our previous work, the maximum cell adhesion force during the manipulation has been studied. However, the relation ship of the force virus time was still not clear. In this paper, a method to measure the time-variation adhesion force during the manipulation was proposed. A hybrid laser sensor and nanorobotic manipulation system was build inside an environment scanning electron microscope (ESEM). A micro putter was fabricated from an atomic force microscope (AFM) cantilever through focused ion beam (FIB) etching technique. The laser head and the micro putter were assembled and fixed to the nano manipulator inside ESEM chamber. The displacement between the micro putter and the laser head can be measured by the laser sensor system. The relationship of the deflection of the micro putter and the applied force was calibrated by nanorobotic manipulation approach. The single cell's time-variation adhesion force to substrate surface was measured based on this hybrid system. The result indicates that both the dynamic data and precise observation can be achieved owing to the combination of the advantages of AFM and ESEM nano robotic manipulation system.
方法研究单细胞在ESEM内操作过程中粘附强度的时变
细胞对衬底的粘附力对于细胞操作是很重要的。在我们之前的工作中,研究了操作过程中最大的细胞粘附力。但力与病毒时间的关系尚不清楚。本文提出了一种测量操作过程中随时间变化的粘附力的方法。在环境扫描电子显微镜(ESEM)内建立了激光传感器和纳米机器人混合操作系统。采用聚焦离子束刻蚀技术,在原子力显微镜(AFM)悬臂梁上制备了微推杆。将激光头和微推杆组装固定在ESEM腔内的纳米机械手上。激光传感系统可以测量微推杆与激光头之间的位移。采用纳米机器人操作方法标定了微推杆的挠度与受力之间的关系。基于该混合系统,测量了单胞对衬底表面的随时间变化的粘附力。结果表明,AFM和ESEM两种纳米机器人操作系统的优势相结合,既能获得动态数据,又能实现精确观测。
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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