High RF performance TSV silicon carrier for high frequency application

S. W. Ho, S. Yoon, Qiaoer Zhou, K. Pasad, V. Kripesh, J. Lau
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引用次数: 132

Abstract

Three dimensional system-in-package (3D SiP) based on silicon carriers or interposer is a fast emerging technology that offers system design flexibility and integration of heterogeneous technologies. One of the key technologies enabler for silicon carrier is through silicon via (TSV). The development of 3D SiP will require the devices with different functionality operating at high frequency to be densely packed on the silicon substrate. However, silicon substrate is usually of low resistivity, when a high frequency signal is transmitted vertically through the substrate via, significant signal attenuation can occur that leads to poor RF performance. In this paper, a coaxial TSV structure in silicon carrier is presented for high frequency applications. The coaxial TSV is able to suppress undesirable substrate loss as well as provide good impedance matching. Electrical modeling of coaxial TSV structure was carried out to obtain the required geometries for impedance matching. Three different types of test vehicles were fabricated; Cu-plug TSV in both low (~10 Omega-cm) and high resistivity (~4000 Omega-cm) silicon substrate, and coaxial TSV in low resistivity silicon substrate. The S-parameters of the via structure of the test vehicles were measured from 100 MHz to 10 GHz. The measured results show that the coaxial TSV structure is able to suppress silicon substrate loss and provide good RF performance compared to Cu-plug TSV structure.
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高频应用的高射频性能TSV硅载体
基于硅载体或中间体的三维系统级封装(3D SiP)技术是一种快速发展的新兴技术,它提供了系统设计的灵活性和异构技术的集成。硅载体的关键技术之一是硅通孔(TSV)技术。3D SiP的开发将需要在硅衬底上密集地封装具有不同功能的高频工作器件。然而,硅衬底的电阻率通常较低,当高频信号通过衬底垂直传输时,会发生明显的信号衰减,导致射频性能差。本文提出了一种用于高频应用的硅载流子同轴TSV结构。同轴TSV能够抑制不良的衬底损耗,并提供良好的阻抗匹配。为了获得阻抗匹配所需的几何形状,对同轴TSV结构进行了电气建模。制造了三种不同类型的试验车辆;低电阻率(~10 ω -cm)和高电阻率(~4000 ω -cm)硅衬底中的cu插头TSV,以及低电阻率硅衬底中的同轴TSV。测试车辆的通孔结构s参数在100 MHz ~ 10 GHz范围内进行了测量。测量结果表明,与cu插头TSV结构相比,同轴TSV结构能够抑制硅衬底损耗,提供良好的射频性能。
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