AFM- ecm: AFM平台上的电化学微/纳米加工

Krishna Kumar Saxena , Muhammad Hazak Arshad , Dominiek Reynaerts
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引用次数: 0

摘要

在具有挑战性的材料上制造微纳米结构仍然是一个重大障碍,在洁净室环境之外的制造技术有限。对基于尖端的微纳米制造的日益增长的兴趣为解决这一问题提供了一个有希望的途径。原子力显微镜(AFM)尖端划痕和纳米压痕等技术正在这一领域取得进展。电化学加工(ECM)具有非接触和原子级溶解的特点,具有缩小加工规模的潜力。通过小型化工具和超短电压脉冲控制和局部材料去除,ECM可以在热加工难以切割的材料时缩小尺寸。本研究探讨了ECM与AFM平台的集成,称为AFM-ECM。利用专门的AFM尖端和短脉冲电压,这种方法可以实现微/纳米加工。本文详细介绍了台式AFM-ECM样机的硬件规格和工艺细节。实验验证了该技术的可行性,并强调了ECM工艺缩小的关键问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
AFM-ECM: Electrochemical micro/nano machining on an AFM platform
Fabricating micro and nanostructures on materials that are challenging to cut remains a significant hurdle, with limited fabrication technologies available outside of cleanroom environments. The growing interest in tip-based micro/nano manufacturing presents a promising avenue to address this issue. Techniques like atomic force microscope (AFM) tip-based scratching and nanoindentation are advancing in this field. Electrochemical machining (ECM), with its non-contact nature and atomic-level dissolution, shows potential for downscaling. By controlling and localizing material removal through miniaturized tools and ultrashort voltage pulses, ECM can be downscaled while athermally machining difficult-to-cut materials. This study explores the integration of ECM with an AFM platform, termed as AFM-ECM. Utilizing a specialized AFM tip and short pulsed voltage, this method enables micro/nano-machining. The paper details the hardware specifications of a prototype desktop AFM-ECM setup and the process specifics. Experimental tests validate feasibility of this technology and highlight critical issues in the downscaling of ECM process.
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CiteScore
3.80
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