Effect of interaction manipulation on nonconductive micro sphere under scanning electron microscope

Ning Cao, Zhizheng Wu, Mei Liu, Hengyu Li, Huayan Pu, Shaorong Xie, Jun Luo, Zhenbang Gong
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引用次数: 1

Abstract

To research the influence of mechanical mechanism emerging in interaction manipulation aimed to quantitatively analyze and design force sensor on nonconductive micro object used to construct non-conductive device, mechanical theory modeling of micro glass sphere acting on the substrate was primarily established according to assumption conditions. On the basis of further analysis of interaction model, experimental procedures consisting of overall steps in transferring micro glass object using the manipulator ends, possessing two kinds of interactive manipulation of picking-up methods including interaction positions acting on the micro glass sphere and interaction angles formed by the central axial line of active end and substrate plane, were conducted to discuss the mechanical effect of interaction under the scanning electron microscope (SEM), respectively. Additionally, deviations of locations landed onto the substrate relative to the allowable presetting area were also considered. The experimental results demonstrated that the micro glass spheres were enabled to pickup with the interaction angle of about 30 degrees and interaction position located underneath the central plane of micro sphere, and realize the allowable manipulation of placement which may ask for strictly controlling time of transferring micro glass sphere within a shorter period of time.
扫描电镜下相互作用对非导电微球的影响
为了定量分析和设计力传感器对用于构建非导电器件的非导电微物体在交互操作中产生的力学机制的影响,首先根据假设条件建立了微玻璃球作用于基板的力学理论模型。在进一步分析交互模型的基础上,实验步骤包括利用机械手端端传递微玻璃物体的总体步骤,具有作用于微玻璃球的交互位置和活动端与基板平面中心轴线形成的交互角度两种交互操作拾取方法;分别在扫描电镜(SEM)下讨论了相互作用的力学效应。此外,还考虑了落在基材上的位置相对于允许预设区域的偏差。实验结果表明,微玻璃球能够以30度左右的相互作用角和位于微球中心平面下方的相互作用位置进行拾取,并实现放置的允许操作,从而可以在较短的时间内严格控制微玻璃球的传递时间。
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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