Optimization of the stub-alternated and serpentine microstrip structures to minimize far-end crosstalk

D. Becerra-Perez, J. Rayas-Sánchez
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引用次数: 1

Abstract

Crosstalk is a signal integrity effect that negatively impacts high-speed digital designs, especially those with dense routing. Several techniques have been proposed to reduce crosstalk. One of them consists of using innovative microstrip structures, such as the stub-alternated and the serpentine structures, which are intended to reduce far-end crosstalk. However, these structures also present a negative effect on return loss and near-end crosstalk. In this paper, these two structures are optimized for far-end crosstalk reduction while minimizing their negative impact on reflections and near-end crosstalk. A genetic algorithm complemented with the Nelder-Mead method is employed for direct optimization, using highly accurate EM simulations in Sonnet driven from Python.
优化短段交替和蛇形微带结构以减少远端串扰
串扰是一种信号完整性效应,会对高速数字设计产生负面影响,尤其是那些具有密集路由的数字设计。已经提出了几种减少串扰的技术。其中之一是采用创新的微带结构,如短节交替微带结构和蛇形微带结构,旨在减少远端串扰。然而,这些结构也会对回波损失和近端串扰产生负面影响。本文对这两种结构进行了优化,以减少远端串扰,同时最大限度地减少对反射和近端串扰的负面影响。采用遗传算法和Nelder-Mead方法进行直接优化,在Sonnet中使用Python驱动的高精度EM模拟。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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