Performance Analysis and Simulation of Spiral and Active Inductor in 90nm CMOS Technology

A. S. Sayem, Sakera Rashid, Sohely Akter, Omar Faruqe, Mohammad Hossam-E-Haider
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引用次数: 1

Abstract

This paper presents compendium analysis, simulation and comparison of conventional spiral/passive inductor and active inductor in 90nm CMOS process. Spiral inductor is a passive element, a coil of wire, follows several drawbacks regarding silicon area consumption, quality factor, and inductance. However, an innovative approach which replicates the behaviors exhibited by the spiral inductor with some additional key features is active inductor. This research paper narrates several comparative features which define the figure of merit and recapitulates the findings based on established references models and proper simulations. Considering the drawbacks such as greater silicon area consumption, low and fixed inductance and quality factor shown by spiral inductor, the active inductor outdoes the spiral inductor. The simulation results demonstrate how the inductance can be made tunable by the regulating parameters such as capacitance, transconductance of the implemented transconductor which also pave the way to tune the quality factor. Nonetheless, active inductor has two major drawbacks regarding phase noise and dc power consumption aided by active elements used in this topology. After all, for the purpose of application based implementations of active inductor, some basic performance parameters and controlling parameters that affect the performance parameters have been summarized.
螺旋有源电感在90纳米CMOS技术中的性能分析与仿真
本文对传统螺旋/无源电感和有源电感在90nm CMOS工艺中的应用进行了概要分析、仿真和比较。螺旋电感是一种无源元件,一圈电线,在硅面积消耗、质量因数和电感方面有几个缺点。然而,一种创新的方法是主动电感,它复制了螺旋电感所表现出的行为,并具有一些额外的关键特征。这篇研究论文叙述了几个比较特征,这些特征定义了价值的数字,并概述了基于已建立的参考模型和适当的模拟的研究结果。考虑到螺旋电感所表现出的硅面积消耗大、电感和质量因数低且固定等缺点,有源电感优于螺旋电感。仿真结果表明,利用所实现的变换器的电容、跨导等调节参数,可以实现电感的可调,为质量因数的可调奠定了基础。尽管如此,有源电感在相位噪声和直流功耗方面有两个主要缺点,在这种拓扑结构中使用有源元件。毕竟,为了实现有源电感的应用,总结了一些基本性能参数和影响其性能参数的控制参数。
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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