Characterization and Model Parameter Extraction of Symmetrical Centre Tapped Inductor using Build in Mixed Mode and Pure Differential S-Parameters

F. Gianesello, Y. Morandini, S. Boret, D. Gloria
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引用次数: 1

Abstract

With the continuous reduction of the gate length, the cut off frequency of the active devices in CMOS technology has exceeded 200 GHz [1]. In addition, CMOS possesses the capability to integrate transceiver with the baseband circuits. Thus, CMOS technology seems to be an attractive candidate for low-gigahertz (5 GHz) radio frequency (RF) applications [2] and even millimetre wave one [3]. Then, monolithic inductors have become an important component in highly integrated radio frequency circuits (RF ICs) for wireless communication systems such as personal communication services, wireless local area networks, satellite communications, and the global positioning system. It is well known that exciting a spiral inductor differentially, using a source connected between the two ends of the inductor, the peak Q-factor shows a significant increase, and this high Q value is maintained over a broader bandwidth [4] compared to single-ended excitation. Up to now, differential characterization of symmetrical inductor has been performed using classical single ended S-parameters [5], and assuming linearity and electrical symmetry hypothesis, mixed mode Sparameters are then computed and differential quality factor extracted. In this paper, for the first time using recently available vector network analyzer capable of delivering true differential signal, PNA-X from Agilent, we will verify this hypothesis discussing dedicated differential test structure and methodology. Moreover, from the modelling side new perspective will be proposed in order to take advantage of mixed mode S-parameters to extract new parameter such as self mutual inductance.
基于内置混合模式和纯微分s参数的对称中心抽头电感表征及模型参数提取
随着栅极长度的不断减小,CMOS技术中有源器件的截止频率已经超过200 GHz[1]。此外,CMOS具有将收发器与基带电路集成的能力。因此,CMOS技术似乎是低千兆赫(5千兆赫)射频(RF)应用[2]甚至毫米波[3]的有吸引力的候选者。然后,单片电感器已成为高度集成射频电路(RF ic)的重要组成部分,用于无线通信系统,如个人通信服务,无线局域网,卫星通信和全球定位系统。众所周知,使用连接在电感两端之间的源差分激励螺旋电感,峰值Q因子显着增加,并且与单端激励相比,这种高Q值在更宽的带宽上保持[4]。到目前为止,对称电感的微分表征都是采用经典的单端s参数[5],在假设线性和电对称性的前提下,计算混合模参数,提取微分品质因子。在本文中,我们将首次使用最近可用的能够提供真正差分信号的矢量网络分析仪,安捷伦的PNA-X,通过讨论专用差分测试结构和方法来验证这一假设。此外,从建模方面提出了利用混合模式s参数提取自互感等新参数的新视角。
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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