面向物联网/可穿戴和5G应用的3D集成和系统封装创新解决方案

Frank Lian, Davidlion Wang, Ryan Chiu, Jase Jiang, Yu-Po Wang
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引用次数: 5

摘要

随着便携式电子产品在移动计算市场上的迅速普及,目前视频流、照片共享等数据密集型应用的使用也在不断增加。越来越多的物联网/可穿戴设备和5G连接设备需要射频(RF)和前端模块(FEM),这推动了IC封装朝着小尺寸、薄外形、更好的电气和热性能以及多功能集成的3D堆叠的方向发展[1]。为了满足这些要求,系统封装(SiP)可以将一个或多个芯片加上可选的无源组件组合在一起,通过使用表面贴装技术(SMT)和双面3D结构到单个封装中,以提供小尺寸,高性能和系统化实现。高速SMT工艺实现了50多个分立无源和有源元件的高密度,并在封装级上实现了异构集成。双面技术的发展提供了封装尺寸缩小的优势,通过相同的集成分立无源元件和有源元件布局。本文将详细介绍3D双面SiP的创新封装解决方案,包括基片带状形式和扇出再分布层(RDL)基片晶圆形式的平台。扇出RDL是晶圆级芯片规模封装(WLCSP)的一种扩展方法,该技术不同于传统的线键或倒装芯片封装,因为它使用重分布介质和细线镀导体进行互连,以取代封装基板。作为一个案例研究,计算的3D SiP封装尺寸可以缩小约50%的面积,总封装厚度可以实现约15%的z-高度减少,薄形式无芯基板和扇出RDL技术的利用。特性分析将采用仿真方法对直流电阻和寄生电感进行电学比较,对Theta JA(°C/W)进行热比较,并对3D双面SiP封装结构进行翘曲比较。此外,还构建了典型的可靠性测试(温度循环测试、高温存储寿命测试、无偏高加速应力测试),以验证3D双面SiP结构在未来IoT/可穿戴设备和5G设备中的应用。目前的市场趋势显然是朝着3D双面SiP的方向发展,因此本文阐述了基板和扇出RDL基板的创新封装解决方案,为实现3D集成和系统内封装提供了独特的机会。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Innovative Packaging Solutions of 3D Integration and System in Package for IoT/Wearable and 5G Application
Along with the rapid spread of portable electronic products on the mobile computing market, the increase in the use of video streaming, photo sharing and also other data-intensive applications keep growing up continuously for now. More and more IoT/Wearable and 5G connectivity devices are required with Radio Frequency (RF) and Front-End Module (FEM) which has driven the development of IC packaging towards on small form factor, thin profile, better electrical and thermal performance, as well as 3D stacking for multi-function integration [1]. To approach these requirements, the System in Package (SiP) can be a combination of one or more chips plus optionally passive components by using Surface Mount Technology (SMT) and 3D structure of double side into a single package to offer a small form factor, high performance and systemization implemented. The high speed SMT process accomplishes the high-density with more than 50 discrete passive as well as active components and heterogeneous integration on package level approach. The development of double side technology offers the advantage of package size shrinkage by the same integrating discrete passive and active components layout. In this paper, the innovative packaging solutions of 3D double side SiP including the platform for both strip form of substrate base and wafer form of Fan-Out Redistribution Layer (RDL) base will be well introduced. Fan-Out RDL is an extension approach of Wafer Level Chip Scale Package (WLCSP), this technology is different from conventional wire bond or flip chip packages because the redistribution dielectrics and fine-line plated conductors are used for interconnection to replace the packaging substrates. As a case study, the calculation of 3D SiP package size can be shrunk around 50% area and the total package thickness can achieve around 15% z-height reduction with thin form coreless substrate and Fan-Out RDL technology utilization. The characterization analysis will apply simulation methodology for electrical comparison on DC resistance and parasitic inductance, thermal comparison on Theta JA (°C/W) and warpage comparison on the package structure of 3D double side SiP. Also, the typical reliability testing (Temperature Cycle Test, High Temperature Storage Life Test, Unbiased High Accelerated Stress Test) are built to verify 3D double side SiP structure for future IoT/Wearable and 5G devices application. Currently the market trends clearly drive towards 3D double side SiP, so this article illustrates the innovative packaging solutions with both substrate base and Fan-Out RDL base to provide a unique opportunity for enabling 3D integration and system in package.
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