一种用于各向同性导电胶粘剂的环氧树脂替代品

S. Liong, C. Wong
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引用次数: 2

摘要

各向同性导电胶粘剂配方主要包括环氧树脂作为聚合物基体。虽然环氧树脂具有优异的粘附能力,但它有吸湿的倾向,并且不可修复。ICA互连中存在的水通过电偶腐蚀导致接触电阻退化。在这项研究中,一种具有低吸湿性和可再加工性的替代聚合物基质被用于各向同性导电胶(ICA)的配方中。在加速老化过程(85/spl℃/85%RH)中测量了这组ica的接触电阻。采用四点探头法测量试样上的接触电阻。比较了不同表面处理(OSP、Sn/Pb、Sn和Ni/Au)的接触面电阻稳定性。对时效过程中早期失效的板材截面进行了SEM分析,并与具有稳定抗力的板材进行了比较。使用模具剪切测试仪比较了该替代聚合物与环氧树脂在各种表面(如OSP, Sn/Pb, Sn和Ni/Au)上的粘附能力。在ICA配方中加入偶联剂,研究了偶联剂对粘接稳定性和接触电阻稳定性的影响。环氧树脂和这种替代聚合物的共混物也进行了评价。在整个老化过程中收集热塑性-热固性ICA共混物的接触电阻测量。用模剪测试仪采集了ICA共混物的粘接数据。这样的共混物应该产生一种具有良好附着力和低吸湿性的配方,这将通过实验结果来验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An alternative to epoxy resin for application in isotropically conductive adhesive
Isotropically conductive adhesive formulations predominantly include epoxy resin as the polymer matrix. Although epoxy has superior adhesion capability, it has a tendency to absorb moisture and is nonreworkable. The presence of water in ICA interconnects causes contact resistance degradation by means of galvanic corrosion. In this study, an alternative polymer matrix with low moisture absorption and potential for reworkability, is used in isotropically conductive adhesive (ICA) formulation. The contact resistance of this group of ICAs is measured throughout an accelerated aging process (85/spl deg/C/85%RH). The four point probe method is used to measure contact resistance on test coupons. Contact resistance stability of the ICAs is compared among test coupons of various surface finishes (OSP, Sn/Pb, Sn, and Ni/Au). SEM analyses are conducted on cross sections of coupons that fail early in the aging process and they are compared with coupons with stable resistance. Adhesion capability of this alternative polymer is compared with epoxy on various surfaces, e.g. OSP, Sn/Pb, Sn, and Ni/Au, using a die shear tester. Coupling agents are incorporated into the ICA formulations and their effects on adhesion and contact resistance stability are studied. Blends of epoxy and this alternative polymer are also evaluated. Contact resistance measurements of a thermoplastic-thermoset ICA blend are collected throughout the aging process. Adhesion data of the ICA blend is also collected using a die shear tester. Such a blend should produce a formulation with good adhesion and low moisture uptake, which will be verified by the experimental results.
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