Detection and Compensation of Motion Error for Nanomanipulation Platform in Scanning Electron Microscope

Mingyu Wang, Yaqiong Wang, Zhan Yang, Tao Chen, Lining Sun, T. Fukuda
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Abstract

Nanomanipulation system based on scanning electron microscope(SEM) with good real-time visual feedback and nanoscale observation resolution had high operability in a vacuum working environment. Different nanomanipulation tasks of carbon nanotubes (CNTs) are carried out through the nanomanipulation system in SEM. Nanomanipulation platform existed inherent manufacture errors, installation errors and other errors, and imprecise nanomanipulation system were also time-consuming and laborious for operators. This paper presentes a method of combining the visual feedback and feedforward control to detect and compensate the motion error of the multi-dimensional SmarAct nanomanipulation platform in the nanomanipulation system in SEM. This method reduces the motion error in the X-Y direction and achieved higher operating accuracy. At the different step speed, the motion error in the X direction and Y direction is 135.7nm and 112.9nm respectively. After the feedforward compensation, the motion error in the X direction and Y direction reduces to 61.3nm and 54.1nm respectively.
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基于扫描电镜的纳米操作系统具有良好的实时视觉反馈和纳米级观察分辨率,在真空工作环境下具有较高的可操作性。碳纳米管的不同纳米操作任务是通过扫描电镜的纳米操作系统来完成的。纳米操作平台存在固有的制造误差、安装误差等误差,不精确的纳米操作系统也给操作人员带来费时费力的问题。提出了一种将视觉反馈与前馈控制相结合的方法来检测和补偿SEM纳米操作系统中多维SmarAct纳米操作平台的运动误差。该方法减小了X-Y方向的运动误差,提高了操作精度。在不同步进速度下,X方向和Y方向的运动误差分别为135.7nm和112.9nm。经过前馈补偿后,X方向和Y方向的运动误差分别减小到61.3nm和54.1nm。
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