Infusing Inorganics into the Subsurface of Polymer Redistribution Layer Dielectrics for Improved Adhesion to Metals Interconnects

Shreya Dwarakanath, P. Raj, Collen Z. Leng, V. Smet, M. Losego, V. Sundaram, R. Tummala
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引用次数: 4

Abstract

This paper demonstrates a new class of inorganic-organic hybrid dielectric materials to address the requirements for high-temperature reliability of next-generation high-density, high-power packages and electronics in harsh environments for automotive applications. A major concern for reliability is the inadequate adhesion of metals with high-temperature polymers. Adhesion deteriorates further via thermal and oxidative exposure and moisture absorption. In this paper, a novel vapor phase infiltration (VPI) technique is applied to create an organic-inorganic hybrid dielectric surface that improves metal-polymer adhesion. The VPI process infuses inorganic constituents to a depth of at least 3 microns, as revealed by elemental analysis using SEM-EDX and XPS depth profiles. In preliminary testing, Cu/Cr films deposited onto these modified polymer surfaces exhibit 3x higher peel strength than metal films deposited on untreated polymer.
注入无机物到聚合物重分布层电介质的亚表面以提高与金属互连的附着力
本文展示了一类新的无机-有机杂化介电材料,以满足汽车应用在恶劣环境下对下一代高密度、高功率封装和电子产品的高温可靠性要求。可靠性的一个主要问题是金属与高温聚合物的附着力不足。通过热、氧化暴露和吸湿,附着力进一步恶化。本文采用一种新的气相渗透(VPI)技术来制备有机-无机杂化介电表面,以提高金属-聚合物的附着力。根据SEM-EDX和XPS深度剖面的元素分析,VPI工艺将无机成分注入至少3微米的深度。在初步测试中,沉积在这些改性聚合物表面的Cu/Cr膜的剥离强度比沉积在未处理聚合物上的金属膜高3倍。
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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