可重构毛细管底填材料球栅阵列(BGA)组件的可靠性

Fangjuan Qi, Yaping Ding, Zhanlai, Ding, Hua Fu
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引用次数: 10

摘要

本文通过三点弯曲试验、机械弯曲疲劳试验和热疲劳试验,研究了下填料BGA组件的可靠性。随着表面贴装技术(SMT)的迅速发展,球栅阵列(BGA)/芯片级封装(CSP)技术在手机、寻呼机、PDA等便携式电子设备中得到了广泛的应用。但如何提高BGA/CSP的可靠性对这些器件的应用是一个很大的挑战。井下充填技术是提高BGA或CSP可靠性的重要手段之一。因此,需要系统地研究可修复毛细下填充材料对BGA组件可靠性的影响。在本研究中,样品以优化的“快速斜坡”温度曲线回流。然后用两种不同的可重构毛细管下填充材料对部分样品进行下填充。三种样本分别分为三组。一组试样在常温下承受三点弯曲载荷进行微力学试验。第二组试样在微力学试验中也以60周/分钟的疲劳频率承受机械弯曲疲劳载荷。第三组试样在-40~+125℃温度下进行热疲劳冲击,停留时间为20 min。三点弯曲实验结果表明,可修复的毛细底填材料可提高BGA组件的静态机械可靠性。充填材料不同,BGA组件的破坏模式也不同。机械弯曲疲劳试验结果表明,采用两种不同可修毛细底填料的BGA组件比不使用底填料的BGA组件具有更高的机械弯曲疲劳可靠性。热疲劳试验结果表明,添加U1底填料的BGA组件的热疲劳可靠性低于未添加任何底填料的BGA组件。使用U2底填料的BGA组件的可靠性高于不使用任何底填料的BGA组件
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reliability of Ball Grid Array (BGA) Assembly with Reworkable Capillary Underfill Material
In this paper, the reliability of the BGA assembly with underfill material is studied by three-point bend test, mechanical bending fatigue test and thermal fatigue test. With the rapid development of surface mount technology (SMT), ball grid array (BGA)/chip scale package (CSP) are widely used in portable electronic devices, such as phone, pager, and PDA. But to increase reliability of BGA/CSP is a big challenge to the application of these devices. One important method to improve reliability of BGA or CSP is underfilling technology. Therefore, the effect of reworkable capillary underfill material on reliability of BGA assembly needs to be investigated systematically. In this study, samples are reflowed with an optimized "rpid ramp" temperature profile. Then some samples are underfilled by two different reworkable capillary underfill materials. All three kinds of samples are divided into three groups respectively. One group of samples is subjected to three point bend load at normal temperature on the mini-mechanical testing. The second group of samples is subjected to mechanical bending fatigue load at a fatigue frequency of 60 cyclic per minute on mini-mechanical testing too. The third group of samples is subjected to thermal fatigue shock at temperature -40~+125degC, and the dwell time 20 min. Three point bend experimental results show that the reworkable capillary underfill material can improved the static mechanical reliability of BGA assembly. And the failure modes BGA assembly is also different with different underfill material. The mechanical bending fatigue experimental results show that the BGA assembly with two different reworkable capillary underfill exhibits higher mechanical bending fatigure reliability than that of the BGA assembly without any underfill materials. Thermal fatigue experimental results show that the thermal fatigue reliability of BGA assembly with U1 underfill material is lower than that of BGA assembly without any underfill material. The reliability of BGA assembly with U2 underfill material is higher than that of BGA assembly without any underfill material
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