Study on a non-contact polishing method using motion coupling confined etchant layer technique

Q3 Engineering
Y. Cao, Yuchao Jia, Yongda Yan, Han Lianhuan, Xuesen Zhao, Zhenjiang Hu, D. Zhan
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引用次数: 0

Abstract

The confined etchant layer technique (CELT) has been proved not only an effective electrochemical microstructures fabrication method, but also a potential polishing method due to its distance sensitiveness. To verify its polishing capability in motion mode and examine the influence of motion parameters on polishing efficiency and material removal rate, motion coupling confined etchant layer technique (MCCELT) polishing experiments were carried out on n-GaAs wafers by adopting central composite inscribe (CCI) design of response surface methodology. Furthermore, the interactions between motion, electrochemical reaction and substrate deformation were analysed using multi-physics coupling finite element simulations. Statistical model shows that sample surface roughness decreases with the decreases of working distance (between the electrode and the substrate) and feeding velocity, and indicates it still has potential to reach more smooth results.
运动耦合约束蚀刻层技术的非接触抛光方法研究
受限蚀刻剂层技术(CELT)由于其距离敏感性,不仅被证明是一种有效的电化学微结构制造方法,而且是一种潜在的抛光方法。为了验证其在运动模式下的抛光能力,并考察运动参数对抛光效率和材料去除率的影响,采用响应面方法的中心复合刻字(CCI)设计,在n-GaAs晶片上进行了运动耦合约束蚀刻剂层技术(MCCELT)抛光实验。此外,通过多物理耦合有限元模拟,分析了运动、电化学反应和基底变形之间的相互作用。统计模型表明,样品表面粗糙度随着工作距离(电极和衬底之间)和进给速度的减小而减小,并表明其仍有可能达到更光滑的结果。
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来源期刊
International Journal of Nanomanufacturing
International Journal of Nanomanufacturing Engineering-Industrial and Manufacturing Engineering
CiteScore
0.60
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0.00%
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0
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