微型部件自对准的新月形图案:第2部分-自对准演示和电导率评价

Mengqing Liu, Dong F. Wang, Shouhei Shiga, T. Ishida, R. Maeda
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引用次数: 3

摘要

设计了一种比已有报道的“泪滴/椭圆孔”模式更适用于自对准的“月牙形”绑定对准标记,并引入重叠比分析(DTIP 2011)与其他可能的对准标记进行了比较研究。最近,为了将这种新设计应用于结合位点上具有正负极的微部件,进一步提出并讨论了一种带有绝缘空间区域的改进“月牙形”模式,定义为“月牙形/间隔”,用于具有两极的微部件的自对准。然而,在本报告中,使用具有相对较高能量势垒的“正方形”结合对准模式,使用四个偏移角的四个完全对齐的方向,对自对准过程进行了原位观察和研究。序列图像揭示了一个缓慢的平移运动在早期阶段,随后是一个更快的旋转对准。对微部件自对准前后的电导率评价也进行了初步考虑。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Crescent shaped patterns for self-alignment of micro-parts: Part II — Self-alignment demonstration and conductivity evaluation
A “crescent-shaped” binding alignment mark, more applicable to the self-alignment than reported “tear-drop/elliptical hole” pattern, was designed and comparatively studied with other possible alignment marks by introducing the overlap ratio analysis (DTIP 2011). Recently, in order to apply this novel design to micro-parts with positive and negative poles on the binding sites, a modified “crescent-shaped” pattern with an insulated space area, defined as “crescent-shaped/interval” for self-alignment of micro-parts with two poles was further proposed and discussed. In this report however, the self-alignment process has been in-situ observed and studied using a “square” binding alignment pattern with relatively higher energy barrier but four fully aligned orientations at four off-set angles. Sequential images reveal a slow translational motion in the early stage followed by a faster rotational alignment. The conductivity evaluation before and after the self-alignment of micro-parts has been also preliminarily considered.
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