Electron beam introduced Cu melting for CNT/Cu hybrid nanowire based on nanorobotics

Zhichao Chen, Zhan Yang, Tao Chen, Lining Sun
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Abstract

A method of making copper particles melting into mutil-wall carbon nanotube (MWCNT) will be presented in this paper. A nanorobotic manipulation system with multiple positioning degrees of freedom (DOFs) was used for the real time nanomanipulation. The nanorobotic manipulation system was constructed inside the scanning electron microscopy (SEM) specimen chamber to pick up MWCNT from MWCNT bulk without any other bounding except van der Waals force and measure the electrical properties of MWCNT and MWCNT/Cu hybrid nanowire. The electron beam was focused on a copper particle cluster of about 200 nm diameter, under SEM. After 5 minutes of electron beam focusing, the melting Cu started to climb into the MWCNT along the wall of the MWCNT. The electrical properties of MWCNT and MWCNT/Cu hybrid nanowire were measured through the model 4200 semiconductor characterization system (4200-SCS). Finally, the electrical properties of MWCNT and MWCNT/Cu hybrid nanowire were plotted on the I-V curves.
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基于纳米机器人的电子束导入铜熔化技术,用于制造 CNT/Cu 混合纳米线
介绍了一种将铜颗粒熔化成多壁碳纳米管(MWCNT)的方法。采用多定位自由度的纳米机器人操作系统进行实时纳米操作。在扫描电镜(SEM)样品室内构建纳米机器人操作系统,从MWCNT体中拾取除范德华力外没有任何其他边界的MWCNT,并测量MWCNT和MWCNT/Cu混合纳米线的电学性能。在扫描电镜下,电子束聚焦在直径约200 nm的铜颗粒簇上。经过5分钟的电子束聚焦后,熔化的Cu开始沿着MWCNT的壁向MWCNT内爬升。通过4200型半导体表征系统(4200- scs)测量了MWCNT和MWCNT/Cu混合纳米线的电学性能。最后,在I-V曲线上绘制了MWCNT和MWCNT/Cu杂化纳米线的电学性能。
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