采用不同环氧树脂组合的无流底填料配方

L. Fan, W. Reed, C. Wong
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引用次数: 0

摘要

无流底填机制已被设计为传统毛细管流动过程的潜在替代品,其中在芯片-衬底互连建立之前将底填材料应用于衬底。在回流步骤中,在底填料完全固化之前形成焊点。在我们的团队中,对无流底填的潜在化学体系进行了广泛的探索,典型的无流底填材料是液体环氧树脂,通过适当的固化体系来适应焊料回流曲线。其他类型的环氧树脂,无论是液体还是固体,在室温下,与基本液体环氧树脂结合,研究粘度,固化曲线,玻璃化转变温度,模量和热膨胀系数。还对这些配方进行了液-液热冲击试验,以评价优选配方成分和加载量。这将有助于为无流底填料的开发提供更多的材料选择。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
No-flow underfill formulation using different epoxy resin combination
The no-flow underfill mechanism has been devised as a potential replacement for the conventional capillary flow process, where the underfill material is applied to the substrate before the chip-substrate interconnection is established. During the reflow step, the solder joints are formed prior to full curing of the underfill material. Extensive exploration has been devoted to the potential chemical systems for the no-flow underfill application in our group, and typically those no-flow underfill materials are liquid epoxy resins formulated with an appropriate curing system to fit with the solder reflow profile. Other types of epoxy resin, either liquid or solid at room temperature, have been combined with the basic liquid epoxy resin, to study the viscosity, curing profile, glass transition temperature, modulus and coefficient of thermal expansion. The liquid-liquid thermal shock tests for these formulations have also been conducted for evaluation of the preferred formulation components and loading amount. This will help to provide more material options for no-flow underfill encapsulant development.
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