识别主要的非线性贡献:在电路设计中使用多重激励

L. De Locht, G. Vandersteen, P. Wambacq, Y. Rolain, R. Pintelon, J. Schoukens, S. Donnay
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引用次数: 17

摘要

对模拟电路和射频电路的非线性行为进行建模和理解对于电信系统的良好设计至关重要。经典的Volterra级数为设计师提供了这种必要的洞察力,但它们只适用于弱非线性系统,而且很难编辑。为了克服这些限制,我们开发了一种技术,通过结合使用具有给定功率谱和任意相位的周期性激励信号的一组模拟获得的信息,来识别,量化和限定模拟和RF电路中非线性行为的来源。本文通过对5 GHz无线局域网(WLAN)中BiCMOS功率前置放大器和自适应偏置功率放大器级联的分析,描述并论证了这种方法。该方法适用于弱和强非线性系统,并通过将放大器推入压缩状态来证明这一点。此外,它还提供了有用的设计信息,例如每个子电路对整体非线性行为的贡献。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Identifying the main nonlinear contributions: use of multisine excitations during circuit design
Modeling and understanding the nonlinear behavior of analog and RF circuits is essential for good design of telecommunication systems. Classical Volterra series give the designer this necessary insight, but they are only valid for weakly nonlinear systems and they are difficult to edit. To overcome these limitations, we developed a technique to identify, quantify and qualify the sources of nonlinear behavior in analog and RF circuits by combining the information obtained by a set of simulations that use periodic excitation signals with a given power spectrum and arbitrary phases. The paper describes and demonstrates this approach by the analysis of the cascade of a BiCMOS power preamplifier and power amplifier with adaptive biasing for 5 GHz wireless local area networks (WLAN). The approach is applicable to weakly and strongly nonlinear systems, which is demonstrated by pushing the amplifier into compression. Furthermore, it provides useful design information, such as the contribution of each subcircuit to the overall nonlinear behavior.
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