一种快速被动加热装置,用于研究封装器件中的贴装分层

Tiphaine Pélisset, M. Bernardoni, M. Nelhiebel, T. Antretter
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引用次数: 0

摘要

封装器件的可靠性是产品开发中最重要的一个主题,特别是封装器件的可靠性研究必须集成到开发周期中。为了评估模接的稳健性,进行了温度循环试验来评估其热疲劳。热循环最常用的方法是使用JEDEC标准温度循环(JESD22-A104)中规定的气候室。通过温度循环通常需要一到三个月的时间。在这项工作中,我们演示并验证了一种替代的被动循环概念,其速度大约快10倍。通过扫描声学显微镜(SAM)对被测器件(DUTs)进行周期性分析,以确定热循环引起的分层量。基于线弹性断裂力学(LEFM)方法,建立了一种基于有限元(FE)的模型来理解模具接头中的裂纹扩展。
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A fast passive-heating setup to investigate die-attach delamination in packaged devices
Packaged devices reliability is a topic of primary importance in product development and, in particular, die-attach reliability investigations must be integrated into the development cycle. In order to assess die-attach robustness, temperature cycle tests are performed to evaluate its thermal fatigue. The most common way for thermal cycling is the use of climatic chambers as specified in the JEDEC standard Temperature Cycling (JESD22-A104). Temperature cycling to pass qualification typically lasts between one and three months. In this work, we demonstrate and validate an alternative passive cycling concept which is roughly 10 times faster. The Devices Under Tests (DUTs) are periodically analyzed via Scanning Acoustic Microscopy (SAM) in order to determine the amount of delamination induced by the thermal cycling. A model based on Finite Elements (FE) has been developed to understand the crack propagation in the die-attach, based on a linear-elastic fracture mechanics (LEFM) approach.
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