Fabricating Method for Multilevel Interconnection with Differential Adhesion Strengths between Metal and Silicon Oxide Thin Films

Hyomen Kagaku Pub Date : 2017-01-01 DOI:10.1380/JSSSJ.38.77
T. Aono, T. Iwasaki
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Abstract

This research demonstrates a newly developed technique to fabricate multilevel interconnections with differential adhesion strengths between metal and silicon-oxide (SiO2) thin films. In the field of micro electromechanical systems (MEMS), the various kinds of metals have been applied as functional materials, i.e. low resistance, high-temperature endurance, catalyst and so on. However, several kinds of metals are not applied on the SiO2 thin film, since an adhesion strength between metal and SiO2 thin films is not enough. Thus, the adhesion strengths (delamination energies) were estimated with a molecular dynamics simulation, and the metals of the lower wiring and the contact area were experimentally determined to easily fabricate the multilevel interconnections. Consequently, the Cr, Ti and Ni thin films can be applied as the adhesion layer on the lower wiring, and the Au and Cu thin films can be applied as the release layer on the contact area.
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金属与氧化硅薄膜间不同附着力多层互连的制备方法
本研究展示了一种新开发的技术,可以在金属和氧化硅(SiO2)薄膜之间制造具有不同粘附强度的多层互连。在微机电系统(MEMS)领域,各种金属已被用作低电阻、耐高温、催化剂等功能材料。然而,由于金属与SiO2薄膜之间的粘附强度不够,几种金属不能应用于SiO2薄膜上。因此,通过分子动力学模拟估计了粘附强度(分层能),并通过实验确定了下部布线和接触区域的金属,从而易于制造多级互连。因此,Cr、Ti和Ni薄膜可以作为下接线的粘附层,Au和Cu薄膜可以作为接触区的释放层。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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