三维模堆中硅通孔微分垂直过渡的建模

K. Chang
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引用次数: 3

摘要

本文提出了一种基于硅通孔的光子集成电路芯片差分垂直跃迁方法。垂直过渡由tsv组成,tsv提供了模具正面和背面之间的连接,beol和微凸点。不需要背面再分布层,使制造工艺简单,电气性能好。研究了差动TSV结构的高频特性,为差动垂直转捩的设计提供了指导。研究了TSV间距、衬层氧化厚度和TSV失配对高频性能的影响。TSV节距的变化对差分模插入损耗和差分模阻抗匹配有影响,而衬里氧化物厚度的变化对差分模插入损耗和差分模阻抗匹配的影响可以忽略不计。此外,差分到共模转换上的TSV不匹配也不是关键。所提出的差分过渡设计在50GHz范围内获得了优于0.75 dB的模拟差分模式插入损耗,在直流至50GHz范围内获得了大于14 dB的模拟差分模式返回损耗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling of differential vertical transition with through silicon vias (TSVs) in 3D die stack
In this paper, a differential vertical transition with through silicon vias (TSVs) in photonic integrated circuit die is presented. The vertical transition composes of TSVs providing connectivity between the die front side and back side, BEOLs and micro-bumps. No back side redistribution layer is required to keep the fabrication process simple with good electrical performance. The high frequency characteristic of the differential TSV structure is also studied to provide design guidelines for the differential vertical transition. The effects of TSV pitch, liner oxide thickness and TSV mismatch on the high frequency performance are demonstrated. The change in TSV pitch has impact on the differential mode insertion loss and differential mode impedance matching while the liner oxide thickness variation induces negligible effect. Moreover, the TSV mismatch on the differential to common mode conversion is also not critical. The proposed differential transition design acquires simulated differential mode insertion loss of better than 0.75 dB up to 50GHz and simulated differential mode return loss of greater than 14 dB from DC to 50 GHz.
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