片上系统噪声完整性仿真

Vasiliki Gavriilidou, A. Voulkidou, T. Noulis, N. Codreanu, C. Ionescu
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引用次数: 3

摘要

在混合信号集成电路中,数字噪声和敏感的模拟/射频电路之间的干扰是一个具有挑战性的性能问题。芯片制造的高成本需要精确模拟电路的性能与信号和噪声完整性。本文描述了衬底串扰噪声分析流程,分析了衬底噪声耦合机理的特点。所提出的噪声完整性感知仿真流程可以正确地估计衬底耦合效应,并预测由于噪声耦合机制导致的模拟/RF受害电路性能下降。该方法可在当前基于虚拟的标准设计套件中无缝实现,并可与任何商业设计工具并行使用,与标准模拟/RF仿真过程兼容。采用RFCMOS 65nm工艺设计的芯片车载全衬底串扰感知系统验证了该方法的有效性。对硅衬底、互连寄生和封装寄生进行了有效建模,从而实现了衬底噪声仿真。设计了一种65nm RFCMOS衬底串扰系统。串扰噪声受害者是一个5 GHz CMOS LNA,噪声侵略者是一个90 kGates数字逻辑。结果表明,采用该方法可以有效地捕获衬底串扰性能的退化。通过识别从数字逻辑到定制低噪声放大器的噪声受害者通过普通硅衬底传播的所有噪声杂散,有效地模拟了LNA载波退化和频谱失真。还捕获了各自的互调制杂散。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
System on Chip Noise Integrity Simulation
In mixed-signal integrated circuits, interference between digital noisy and sensitive analog/RF circuits is a challenging performance issue. The high cost of chip fabrication requires accurate simulation of the circuits’ performance versus signal and noise integrity. In this paper, a substrate crosstalk noise analysis flow is described and the characteristics of the substrate noise coupling mechanism are analyzed. The proposed noise integrity aware simulation flow properly estimates the substrate coupling effect and predicts the analog/RF victim circuit performance degradation due to noise coupling mechanisms. The methodology is implemented seamlessly in the current standard virtuoso-based design suite and is used in parallel with any commercial design tool, compatible with the standard analog/RF simulation process. The efficiency of the proposed methodology is validated by a full substrate crosstalk aware system on chip vehicle, designed in an RFCMOS 65 nm process. Silicon substrate, interconnect parasitics and package parasitics are efficiently modeled so as to enable the substrate noise simulation. A substrate crosstalk system on chip vehicle is designed in a 65 nm RFCMOS. The crosstalk noise victim is a 5 GHz CMOS LNA and the noise aggressor is a 90 kGates digital logic. It is demonstrated that by applying the proposed methodology, substrate crosstalk performance degradation can be efficiently captured. The LNA carrier degradation and the spectrum distortion re efficiently simulated by identifying all of the noise spurs propagating through the common silicon substrate from the digital logic to the custom low noise amplifier noise victim. The respective inter-modulation spurs are also captured.
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