LTCC PoP Technology-Based Novel Approach for mm-Wave 5G System for Next Generation Communication System

S. Singh, T. Kukal
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引用次数: 2

Abstract

This paper presents a comprehensive 5G system design methodology targeting 1Gbit/s next-generation, cellular communication based on Low-Temperature Co-fired Ceramics (LTCC), Package on Package (PoP) solution for mm wave module at 28-GHz in 5G communication System. The tile type package contributes to a dramatic reduction in size of the 5G communication system in single package along with the obvious merit of ceramic housing, which is better consistency of Coefficient of Thermal Expansion (CTE), compared to the traditional combination of ceramic board and metal housing. In addition, the paper presents the schematic diagram of heterogenous integration into an LTCC package including MMIC and RFIC (TX/RX) and 5G modem package mounted on LTCC base package and proposes a novel vertical interconnection based on Ball Grid Array (BGA) to connect vias in the lid and those in the stage of the main LTCC pan. This transition provides excellent signal integrity at high-speed data rates up to 28 Gbits/s.The paper also investigates the timing budget of TX/RX (at 28GHz) mm-wave signals in PoP technology for integrating a MMIC, PMIC, RFIC and 5G modem IC on another package. It starts by examining the package electrical modeling methodology used in GHz I/O device modeling in a more robust and accurate way to support high-volume manufacturing and high signal quality. This is followed by frequency and time domain analysis of package models to determine the optimized design parameters to achieve good signal performance.
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下一代通信系统中基于LTCC PoP技术的毫米波5G系统新方法
本文提出了一种针对5G通信系统中28 ghz毫米波模块的基于低温共烧陶瓷(LTCC)的封装对封装(PoP)解决方案的1Gbit/s下一代蜂窝通信的综合5G系统设计方法。瓦片式封装有助于单个封装中5G通信系统的尺寸大幅减小,并且陶瓷外壳的优点明显,与传统的陶瓷板和金属外壳组合相比,其热膨胀系数(CTE)的一致性更好。此外,本文给出了包括MMIC和RFIC (TX/RX)在内的LTCC封装和安装在LTCC基包上的5G调制解调器封装的异构集成示意图,并提出了一种基于球栅阵列(Ball Grid Array, BGA)的新型垂直互连方法,用于连接盖子上的过孔和主LTCC pan上的过孔。这种转换在高达28 gbit /s的高速数据速率下提供了出色的信号完整性。本文还研究了在另一个封装上集成MMIC、PMIC、RFIC和5G调制解调器IC的PoP技术中TX/RX (28GHz)毫米波信号的时序预算。首先,以更稳健和准确的方式检查GHz I/O器件建模中使用的封装电气建模方法,以支持大批量制造和高信号质量。然后对封装模型进行频域和时域分析,以确定优化的设计参数,以获得良好的信号性能。
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