株式会社極東書店トップ商品一覧CMOS Current-Mode Circuits for Data Communications. 1st ed. Softcover of orig. ed. 2007

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CMOS Current-Mode Circuits for Data Communications. 1st ed. Softcover of orig. ed. 2007

CMOS Current-Mode Circuits for Data Communications. 1st ed. Softcover of orig. ed. 2007

・ISBN 978-1-4419-3999-9 paper

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著者・編者Yuan, Fei,
シリーズ (Analog Circuits and Signal Processing)
出版社 (Springer-Verlag New York Inc., US)
出版年月2010
ページ数290 pp.
言語ENG
ニュース番号<A05-27528>

解説

Current-mode circuits, where information is represented by the branch currents of the circuits rather than the nodal voltages as of voltage-mode circuits, possess many unique and attractive characteristics over their voltage-mode counterparts including a small nodal time constant, high current swing in the presence of a low supply voltage, reduced distor- tion, a low input impedance, a high output impedance, less sensitive to switching noise, and better ESD immunity. CMOS current-mode circuits have found increasing applications in telecommunication sys- tems, instrumentation, analog signal processing, multiprocessors, high- speed computer interfaces, and the backplane of complex electronic sys- tems. This book deals with the analysis and design of continuous-time CMOS current-mode circuits for data communications over wire chan- nels. CMOS current-mode sampled-data networks, such as switch- current circuits, and current-mode logic circuits, are excluded. The book is organized as the followings : Chapter 1 examines the distinct characteristics of ideal voltage-mode and current-mode circuits. The topology duaUty of these two classes of circuits is investigated using the concept of inter-reciprocity and adjoint network. A critical comparison of the input and output impedances, bandwidth, slew rate, propagation delay, signal swing, supply voltage sensitivity, and ESD sensitivity of voltage-mode and current-mode cir- cuits is provided. Chapter 2 investigates design techniques that improve the perfor- mance of low-voltage current-mode circuits including input impedance reduction, output impedance boosting, bandwidth enhancement, mis- match compensation, power consumption reduction, and swing improve- ment. Chapter 3 investigates the modeling of wire channels.