基于μMMT和BST实验的封装分层预测

H. Nabi, D. Schweitzer, D. Vu, I. Maus, L. Weiss
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引用次数: 6

摘要

利用有限元方法对电子封装界面分层进行数值模拟和预测,需要对失效有正确的认识,并对界面所涉及的材料有准确的表征。在本工作中,实现了表征铜-环氧树脂模压复合界面的界面附着力和断裂韧性的实验。通过微混合模试验(μMMT)和按钮剪切试验(BST)提取不同组合铜与成型化合物的粘附参数。采用内聚区模型(CZM)进行有限元模拟,对不同微电子封装在半循环试验中的分层行为进行了预测。数值模拟和预测结果得到了实验验证。
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Prediction of package delamination based on μMMT and BST experiments
The numerical simulation and prediction of interfacial delamination in electronic packages using the finite element method requires a correct understanding of the failure and an accurate characterization of the materials involved at the interface. In this work, experiments were realized to characterize the interfacial adhesion and fracture toughness of copper-to-epoxy-molding-compound interfaces. Adhesion parameters for different combinations of coppers and molding compounds were extracted from the so-called micro mixed mode test (μMMT) and button shear test (BST). Finite element simulations using cohesive zone modeling (CZM) were used to predict the delamination behavior of different micro-electronic packages being subjected to half cycle tests. The results of the numerical simulation and prediction were verified experimentally.
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Efficient simulation of thermo-mechanical stress in the on-chip metallization of power semiconductors Simulation driven design of novel integrated circuits - Part 1: Selection of the materials based on the Virtual DoE Applications of computational mechanics in stretchable electronics Prediction of package delamination based on μMMT and BST experiments Simulation of a flip chip bonding technique using reactive foils
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