PEEC Modeling in 3D IC/Packaging Applications Based on Layered Green's Functions

Biyao Zhao;Siqi Bai;Jun Fan;Brice Achkir;Albert Ruehli
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引用次数: 1

Abstract

A circuit modeling application for three-dimensional (3D) integrated circuits (IC)/packages is proposed in this article. The method is based on the partial element equivalent circuit (PEEC) method and layered Green's functions (LGF). The LGFs are calculated from the discrete complex image method with three terms, direct coupling, complex images, and surface wave extracted to analyze the wave behaviors. The dominant terms for the LGFs are analyzed for four canonical stack-ups in 3D IC/packaging systems. Analytical formulas that include the contribution of the complex images calculated from the LGFs are used for the partial capacitance calculation. A fast-modeling approach is proposed by applying the LGF in PEEC using three acceleration treatments to handle the 3D IC/packaging geometry without sacrificing accuracy. An on-chip power distribution network geometry is used to illustrate and validate the method.
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基于分层Green函数的三维IC/封装应用PEEC建模
本文提出了一种用于三维集成电路(IC)/封装的电路建模应用。该方法基于部分元件等效电路(PEEC)方法和分层格林函数(LGF)。LGF是根据离散复图像方法计算的,该方法具有三项,即直接耦合、复图像和提取的表面波,以分析波浪行为。分析了三维集成电路/封装系统中四个典型堆叠的LGF的主导项。将包括从LGF计算的复杂图像的贡献的分析公式用于局部电容计算。提出了一种快速建模方法,通过在PEEC中应用LGF,使用三种加速处理来处理3D IC/封装几何结构,而不牺牲精度。使用片上配电网络几何结构来说明和验证该方法。
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