定义PCB设计路由规则的机器学习技术

A. Plot, Benoît Goral, P. Besnier
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引用次数: 0

摘要

本文介绍了一种使用机器学习技术来定义印刷电路板(PCB)设计规则的方法,以减少信号完整性(SI)或电磁干扰(EMI)问题。使用市场上可用的3D EM求解器对说明必须定义这些规则的情况的场景进行建模,并使用不同的参数运行模拟,以获得设计空间的代表性样本。然后使用该数据集训练基于kriging算法的场景代理模型(即元模型)。使用这个替代模型,可以在相当长的时间内计算出超过一万次的模拟。代理模型估计允许估计相对于某些规格(串扰电平和插入损耗)的变化参数的灵敏度。最后,对未满足某些要求(串扰电平、插入)损耗的输出值进行分析,提供了一些关于参数范围方面指导方针可能调整的见解。最后,给出了一个实际的设计实例来说明该方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Machine Learning Techniques for Defining Routing Rules for PCB Design
This article presents a methodology using machine learning techniques for defining printed circuit board (PCB) design rules in order to reduce signal integrity (SI) or electro-magnetic interference (EMI) issues. The scenario illustrating the situation for which these rules must be defined is modelled with a 3D EM solver available on the market and simulations are run with varying parameters in order to obtain a representative sample of the design space. This data set is then used to train a surrogate model (i.e. a metamodel) of the scenario based on kriging algorithm. Using this surrogate model, more than ten thousands of simulations are computed in a decent time. The surrogate model estimations allow to estimate the sensitivity of the varying parameters with respect to some specifications (crosstalk level and insertion loss). Finally, an analysis of output values for which some requirements (crosstalk level, insertion) loss are not fulfilled provide some insights about possible adjustment of guidelines in terms of parameter ranges. Finally, a practical design example is given to illustrate the methodology.
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