基于DOE和析因分析技术的芯片基板封装灵敏度设计

M. Yew, C. Yuan, K. Chiang, Yu-Hua Chen, Wen-Kung Yang
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引用次数: 1

摘要

随着电子设备变得越来越复杂,便携式产品对半导体芯片的需求也在增加,对更小、更轻的芯片和封装的需求也越来越大。然而,由于制造过程中的温度负荷不同,不同材料之间的热膨胀系数(CTE)的不匹配影响了封装的可靠性。在本研究中,我们选择了由ITRI/ERSO和Fraunhofer IZM共同开发的芯片衬底封装(chip-in-substrate package, CiSP)作为测试仪器。为了理解制造过程中的应力/应变积累,采用了过程建模方法来确定CiSP结构在顺序制造过程中的应力分布演变。此外,为了进一步改进CiSP的封装设计,采用实验设计(DOE)的方法研究了最关键区域周围的应力/应变变化。提出了一种基于验证模型的两步设计方法。分析结果表明,减小层压厚度和增加互连层厚度可以有效地减小应力集中现象。CiSP的稳健设计参数可以通过本研究中提出的分析程序来实现。因此,CiSP可以在验证的设计参数内制造,因此可以满足减少产品开发所需时间的需求
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Sensitivity Design of the Chip-in-Substrate Package Using DOE with Factorial Analysis Technology
As electronic devices become more complicated and the need for semiconductor chips in portable products increases, the demand for smaller and lighter chips and packages becomes greater. However, because of the different temperature loading from the manufacturing process, the mismatch in the coefficient of thermal expansion (CTE) between different materials affects the packaging reliability. In this study, the chip-in-substrate package (CiSP), which has been developed by ITRI/ERSO and Fraunhofer IZM, is chosen as the test instrument. For the purpose of comprehending the stress/strain accumulation during the manufacturing process, a process modeling methodology has been executed to determine the evolution of stresses distribution during the sequential fabrication of CiSP structures. In addition, to further improve the packaging design of CiSP, the stress/strain variation around the most critical region is investigated by means of the design of experiment (DOE). A two-step design method based on the validated model is proposed for the development of the CiSP. The analytic results reveal that decreasing the thickness of the lamination layer and increasing the thickness of the interconnect can effectively reduce the stress concentration phenomenon. The robust design parameters for the CiSP could be achieved through the analytical procedures presented in this study. Therefore, the CiSP can be fabricated within the validated design parameters and can consequently meet the demand of decreasing the amount of time involved in product development
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