一种芯片级封装的高性能多元件载波

Hongqing Zhang, C. Reynolds, Tuhin Sinha, J. Zitz, F. Pompeo
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引用次数: 0

摘要

在本文中,我们讨论了四(4)芯片多组件载波(MCC)封装的设计及其在高端服务器/大型机应用中的可行性。除了CSP的外形因素外,基于低热膨胀系数(CTE)有机材料,还创建了一类新的有机芯片级封装(CSP)和相关的设计基本规则。微球网格阵列(BGA)用于将CSP连接到子卡组件,形成MCC封装结构。低CTE有机衬底显著降低了芯片与衬底结合和组装过程中产生的内应力,从而提高了CSP和整个MCC结构的良率和可靠性。为了保证MCC封装在装配和现场热漂移过程中的可靠运行,采用有限元方法对MCC封装的盖设计进行了数值模拟评价和优化。讨论了各种几何设计组合的热学和力学解决方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A high performance Multi Component Carrier with Chip Scale Package
In this paper, we discuss the design of a four (4) chip Multi Component Carrier (MCC) package and feasibility for use in high-end server/mainframe applications. A new class of organic, Chip Scale Package (CSP) and associated design ground rules were created based on a low, coefficient of thermal expansion (CTE) organic material, in addition to the CSP form factor. Micro Ball Grid Array (BGA) is used to connect the CSP to a daughter card assembly to form the MCC package structure. The low CTE organic substrate significantly reduces the internal stress that arises from the chip to substrate bond and assembly process, which enhances the yield and reliability of the CSP and the entire MCC structure. Numerical simulation using the finite element method (FEM) has been conducted to evaluate and optimize the lid design of the MCC package in order to ensure reliable lid to package operation during assembly and field thermal excursions. Thermal and mechanical solutions with various combinations of geometric design are discussed.
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