Computational Electronic Circuits: Simulation and Analysis with MATLAB®

✍ Scribed by Sotoudeh Hamedi-Hagh

• Publisher: Springer
• Year: 2021
• Tongue: English
• Leaves: 457
• Edition: 1st ed. 2022
• Category: Library

✦ Synopsis

This textbook teaches in one, coherent presentation the three distinct topics of analysis of electronic circuits, mathematical numerical algorithms and coding in a software such as MATLAB®. By combining the capabilities of circuit simulators and mathematical software, the author teaches key concepts of circuit analysis and algorithms, using a modern approach. The DC, Transient, AC, Noise and behavioral analyses are implemented in MATLAB to study the complete characteristics of a variety of electronic circuits, such as amplifiers, rectifiers, hysteresis circuits, harmonic traps and passes, polyphaser filters, directional couplers, electro-static discharge and piezoelectric crystals. This book teaches basic and advanced circuit analysis, by incorporating algorithms and simulations that teach readers how to develop their own simulators and fully characterize and design electronic circuits.

• Teaches students and practitioners DC, AC, Transient, Noise and Behavioral analyses using MATLAB;
• Shows readers how to create their own complete simulator in MATLAB by adding materials learned in all 6 chapters of the book;
• Balances theory, math and analysis;
• Introduces many examples such as noise minimization, parameter optimization, power splitters, harmonic traps and passes, directional couplers, polyphase filters and electro-static discharge that are hardly referenced in other textbooks;
• Teaches how to create the fundamental analysis functions such as linear and nonlinear equation solvers, determinant calculation, random number generation and Fast Fourier transformation rather than using the built-in native MATLAB codes.

✦ Table of Contents

Preface
Contents
List of Figures
List of Tables
Chapter 1: Framework
1.1 Numeric and Symbolic Analyses
1.2 Finite Integral
1.3 Finite Difference
1.4 Laplace Transformation
1.4.1 Basic Signals
1.4.2 Multiplication and Convolution
1.4.3 Scaling
1.4.4 Shifting
1.4.5 Differentiation
1.4.6 Integration
1.4.7 Multiplication by Time
1.4.8 Conjugate Property
1.4.9 Initial and Final Values
1.4.10 Periodicity
1.5 Waveforms
1.6 Components
1.6.1 Ground
1.6.2 Short
1.6.3 Open
1.6.4 Ideal Switch
1.6.5 Resistors
1.6.6 Capacitors
1.6.7 Nonideal Switch
1.6.8 Inductors
1.6.9 Transformers
1.6.10 Nonideal Sources
1.6.11 Dependent Sources
1.6.12 Diodes
1.6.13 Bipolar Junction Transistors
1.6.14 Metal Oxide Semiconductor Field Effect Transistors
1.7 LTI/LTV/NTI/NTV
1.8 Schematic Editor
1.8.1 Netlisting
1.9 Conclusions
Questions
Q.1.1
Q.1.2
Q.1.3
Q.1.4
Q.1.5
Q.1.6
Q.1.7
Q.1.8
Q.1.9
Q.1.10
Chapter 2: DC Analysis
2.1 Analysis Algorithms
2.2 Inverse Matrix Calculation
2.3 Determinant Ratios Obtained by Laplace Expansion
2.4 Determinant Ratios Obtained by LU Decomposition
2.5 Gaussian Elimination
2.6 Conjugate Gradient Iterations
2.7 Gauss-Seidel Iterative Method
2.8 Newton-Raphson
2.9 Conclusions
Questions
Q.2.1
Q.2.2
Q.2.3
Q.2.4
Q.2.5
Q.2.6
Q.2.7
Q.2.8
Chapter 3: Transient Analysis
3.1 Partial Fraction Decomposition
3.2 Aperiodic Capacitive Circuits
3.3 Aperiodic Inductive Circuits
3.4 Periodic Transformation
3.5 Periodic Capacitive Circuits
3.5.1 Circuit 1
3.5.2 Circuit 2
3.5.3 Circuit 3
3.6 Periodic Inductive Circuits
3.6.1 Circuit 1
3.6.2 Circuit 2
3.6.3 Circuit 3
3.7 Circuits with Both Capacitors and Inductors
3.7.1 Circuit 1
3.7.2 Circuit 2
3.7.3 Circuit 3
3.7.4 Circuit 4
3.8 Causality
3.8.1 Circuit 1
3.8.2 Circuit 2
3.8.3 Circuit 3
3.8.4 Circuit 4
3.9 Spectral Decomposition Using Fourier Series
3.9.1 Fast Fourier Transformation
3.10 Spectral Characteristics
3.11 Conclusions
Questions
Q.3.1
Q.3.2
Q.3.3
Q.3.4
Q.3.5
Chapter 4: AC Analysis
4.1 Admittance Matrix
4.2 Cramer´s Rules
4.3 Laplace Expansion
4.4 Applying Voltage or Current Sources to a Circuit
4.5 Circuits with Multiple Input Sources
4.6 Shorting a Circuit Node
4.7 Fundamental Transfer Functions
4.7.1 Example 1
4.7.2 Example 2
4.7.3 Example 3
4.7.4 Example 4
4.8 Taylor Expansion
4.9 Transistor Amplifier
4.10 Node Elimination
4.10.1 Example 1
4.11 Y-Parameters
4.12 Signal Gains
4.13 Primary Transfer Functions
4.14 Maximum Power
4.15 Circular-Shaped Power Dividers
4.16 Star-Shaped Power Dividers
4.17 Power Gains
4.18 Admittance Mismatch
4.19 S-Parameters
4.20 Z-Parameters
4.21 Parameter Conversion
4.22 Impedance S-Parameters
4.23 Characterization
4.23.1 Poles and Zeros
4.23.2 Impulse Response
4.23.3 Step Response
4.23.4 Bode Plots
4.23.5 Root Locus
4.23.6 Nyquist Plot
4.23.7 Nichols Plot
4.23.8 Smith Chart
4.24 Piezoelectric Crystal
4.25 Shunt Harmonic Traps
4.26 Sequential Harmonic Passes
4.27 Shunt Harmonic Passes
4.28 Single-Stage Poly Phase Filters
4.29 Low Pass Couplers
4.30 Substrate Capacitors
4.31 Substrate Inductors
4.32 Model Optimization
4.33 Conclusions
Questions
Q.4.1
Q.4.2
Q.4.3
Q.4.4
Q.4.5
Q.4.6
Q.4.7
Q.4.8
Q.4.9
Chapter 5: Noise Analysis
5.1 Signal Power
5.2 Transient Noise Statistics
5.3 Spectral Noise Properties
5.4 Simple Noise Transformations
5.4.1 Example 1
5.4.2 Example 2
5.5 Noise Analysis Steps
5.6 Noise Matrix
5.7 Two-Node Resistive Circuit
5.8 External Noise Transformations
5.8.1 From Output Voltage to Input Voltage
5.8.2 From Output Voltage to Input Current
5.8.3 From Output Current to Input Voltage
5.8.4 From Output Current to Input Current
5.8.5 Between Input Current and Input Voltage
5.8.6 From Input Voltage to Output Voltage
5.8.7 From Input Voltage to Output Current
5.8.8 From Input Current to Output Voltage
5.8.9 From Input Current to Output Current
5.8.10 Between Output Current and Output Voltage
5.9 Total Referred Noises
5.10 Input Referred Noise Sources
5.11 Variations of the Noise Factors
5.12 Noise Factor and Maximum Power Trade-Offs
5.12.1 Example 1
5.12.2 Example 2
5.12.3 Example 3
5.13 Conclusions
Questions
Q.5.1
Q.5.2
Q.5.3
Q.5.4
Q.5.5
Q.5.6
Q.5.7
Chapter 6: Behavioral Analysis
6.1 Block-Level Modeling
6.2 Opamps
6.2.1 Inverting Hysteresis Circuit
6.2.2 Noninverting Hysteresis Circuit
6.2.3 Oscillator Circuit
6.3 Diodes
6.3.1 Diode Rectifier
6.3.2 ESD Protection
6.3.3 Full-Wave Rectifier
6.4 Conclusions
Questions
Q.6.1
Q.6.2
Q.6.3
Q.6.4
Q.6.5
Q.6.6
Q.6.7
Q.6.8
Index