Computer Methods for Analysis of Mixed-Mode Switching Circuits - Ajoy Opal

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Résumé :
Computer Methods for Analysis of Mixed-Mode Switching Circuits provides an in-depth treatment of the principles and implementation details of computer methods and numerical algorithms for analysis of mixed-mode switching circuits. Major topics include: -Computer-oriented formulation of mixed-mode switching circuits, -Network functions of linear and nonlinear time-varying systems, -Numerical Laplace inversion based integration algorithms and inconsistent initial conditions, -Time domain analysis of periodically switched linear and nonlinear circuits including response, sensitivity, noise, clock jitter, and statistical quantities, -Time domain analysis of circuits with internally controlled switches and over-sampled sigma-delta modulators, -Tellegen's theorem, frequency reversal theorem, and transfer function theorem of periodically switched linear circuits and their applications, -Frequency domain analysis of periodically switched linear and nonlinear circuits including response, sensitivity, group delay, noise, and statistical quantities.

Biographie:
Fei Yuan received the B.Eng. degree in electrical engineering from Shandong University, Jinan, China in 1985, the M.A.Sc. degree in chemical engineering, and the Ph.D. degree in electrical engineering from University of Waterloo, ON, Canada in 1995 and 1999, respectively. During 1985-1989, he was a Lecturer in the Department of Electrical Engineering, Changzhou Institute of Technology, Jiangsu, China. In 1989 he was a Visiting Professor at Humber College of Applied Arts and Technology, Toronto, ON, Canada, and Lambton College of Applied Arts and Technology, Sarnia, ON, Canada. He was with Paton Controls, Sarnia, ON, Canada during 1989-1994 where he designed distributed process control systems for petrochemical processes worldwide. Since 1999 he has been with Department of Electrical, Computer, and Biomedical Engineering, Ryerson University, ON, Canada, where he is currently a full professor. Dr. Yuan served as the Chair of Department during 2010-2015. Dr. Yuan is the editor ofLow-Power Circuits for Emerging Applications in Communications, Computing and Sensing (CRC, 2018), the editor and a lead contributor of CMOS Time-Mode Circuits : Principles and Applications (CRC, 2015), the author of CMOS Circuits for Passive Wireless Microsystems (Springer, 2010), CMOS Active Inductors and Transformers : Principle, Implementation, and Applications (Springer, 2008), CMOS Current-Mode Circuits for Data Communications (Springer, 2006) and the lead co-author of Computer Methods for Analysis of Mixed-Mode Switching Circuits (Kluwer Academic, 2004). In addition, he is the author / coauthor of 10 book chapters and over 230 research papers in refereed international journals and conference proceedings. Dr. Yuan was awarded Dean's Teaching Award in 2017, Ryerson Research Chair award in 2005, Dean's Research Award in 2004, Early Tenure from Ryerson University in 2003, Doctoral Scholarship from the Natural Science and Engineering ResearchCouncil of Canada in 1997 and 1998, Teaching Excellence Award from Changzhou Institute of Technology in 1988, and Science and Tech. Innovation Award from Changzhou Municipal government in 1988. Dr. Yuan is a Fellow of IET, a senior member of IEEE, and a registered professional engineer in the province of Ontario, Canada....

Sommaire:
List of Figures List of Tables Preface Acknowledgments Part I: The Fundamentals 1. AN OVERVIEW OF MIXED-MODE SWITCHING CIRCUITS 1. Classification 2. Switched Capacitor Techniques 3. Switched Current Techniques 4. Characteristics of Mixed-Mode Switching Circuits 2. COMPUTER FORMULATION OF MIXED-MODE SWITCHING CIRCUITS 1. Modeling of Switches 2. Formulation Methods for Mixed-Mode Switching Circuits 3. Summary 3. NETWORK FUNCTIONS OF TIME-VARYING CIRCUITS 1. Transfer Functions of Linear Time-Varying Systems 2. Transfer Functions of Nonlinear Time-Varying Systems 3. Frequency Response of Nonlinear Time-Varying Systems 4. Frequency Response of Nonlinear Periodically Time-Varying Systems 5. Summary 4. NUMERICAL INTEGRATION OF DIFFERENTIAL EQUATIONS 1. Linear Single-Step Predictor-Corrector Algorithms 2. Linear Multi-Step Predictor-Corrector Algorithms 3. Integration Using Numerical Laplace Inversion 4. Summary Part II: Time Domain Analysis 5. INCONSISTENT INITIAL CONDITIONS 1. Inconsistent Initial Conditions 2. Numerical Laplace Inversion Based Two-Step Algorithm 3. Backward Euler Based Algorithms 4. Taylor Series Based Algorithm 5. Volterra Functional Series Based Algorithm 6. Existence of Dirac Impulses at Switching Instants 7. Summary 6. SAMPLED-DATA SIMULATION OF PERIODICALLY SWITCHED LINEAR CIRCUITS 1. Sampled-Data Simulation of Periodically Switched Linear Circuits 2. Inconsistent Initial Conditions 3. Time-Domain Sensitivity 4. Inconsistent Initial Conditions of Sensitivity Networks 5. Statistical Analysis 6. Noise Analysis 7. Clock Jitter 8. Summary 1 Computation of Uk(T) 2 Computation of Rk(T) 3 Computation of Uk(T) 7. SAMPLED-DATA SIMULATION OF PERIODICALLY SWITCHED NONLINEAR CIRCUITS 1. Multi-Linear Theory 2. Volterra Circuits 3. Sampled-Data Simulation of PeriodicallySwitched Nonlinear Circuits 4. Inconsistent Initial Conditions 5. Sensitivity of Periodically Switched Nonlinear Circuits 6. Discussion 7. Examples 8. Summary 8. SAMPLED-DATA SIMULATION OF CIRCUITS WITH INTERNALLY CONTROLLED SWITCHES 1. Internally Controlled Switches and Switching Variables 2. Switching Instants 3. Inconsistent Initial Conditions 4. Examples 5. Summary 9. SAMPLED-DATA SIMULATION OF OVER-SAMPLED SIGMA-DELTA MODULATORS 1. Introduction 2. Modeling of Clocked Quantizers 3. Modeling of Unclocked Quantizers 4. Modeling of Digital-to-Analog Data Converters 5. Modeling of Other Blocks 6. Simulation Methods Part III: Frequency Domain Analysis 10. ADJOINT NETWORK OF PERIODICALLY SWITCHED LINEAR CIRCUITS 1. Tellegen?s Theorem 2. Inter-reciprocity 3. Adjoint Network 4. Transfer Function Theorem 5. Frequency Reversal Theorem 6. Examples 11. FREQUENCY DOMAIN ANALYSIS OF PERIODICALLY SWITCHED LINEAR CIRCUITS 1. Frequency Response 2. Sensitivity Analysis 3. Group Delay Analysis 4. Noise Analysis 5. Statistical Analysis 6. Summary 12. FREQUENCY DOMAIN ANALYSIS OF PERIODICALLY SWITCHED NONLINEAR CIRCUITS 1. Fundamentals 2. Distortion Analysis of Periodically Switched Circuits 3. Harmonic Distortion 4. Intermodulation Distortion 5. Examples