Circuit Systems with MATLAB and PSpice
1st Edition
Published on 23. November 2007
Book
Hardback
552 pages
978-0-470-82232-6 (ISBN)
Description
Software tools applied to circuit analysis and design are rapidly evolving, enabling students to move beyond the time-consuming, math-intensive methods of traditional circuit instruction. By incorporating MATLAB(r) 7.0 and PSpice(r) 10.0, alongside systematic use of the Laplace transform, Yang and Lee help readers rapidly gain an intuitive understanding of circuit concepts.
* Unified scheme using the Laplace transform accelerates comprehension
* Focuses on interpreting solutions and evaluating design results, not laborious computation
* Most examples illustrated with MATLAB(r) analyses and PSpice(r) simulations
* Downloadable programs available for hands-on practice
* Over 130 problems to reinforce and extend conceptual understanding
* Includes expanded coverage of key areas such as:
* Positive feedback OP Amp circuits
* Nonlinear resistor circuit analysis
* Real world 555 timer circuit examples
* Power factor correction programs
* Three-phase AC power system analysis
* Two-port parameter conversion
Based on decades of teaching electrical engineering students, Yang and Lee have written this text for a full course in circuit theory or circuit analysis. Researchers and engineers without extensive electrical engineering backgrounds will also find this book a helpful introduction to circuit systems.
* Unified scheme using the Laplace transform accelerates comprehension
* Focuses on interpreting solutions and evaluating design results, not laborious computation
* Most examples illustrated with MATLAB(r) analyses and PSpice(r) simulations
* Downloadable programs available for hands-on practice
* Over 130 problems to reinforce and extend conceptual understanding
* Includes expanded coverage of key areas such as:
* Positive feedback OP Amp circuits
* Nonlinear resistor circuit analysis
* Real world 555 timer circuit examples
* Power factor correction programs
* Three-phase AC power system analysis
* Two-port parameter conversion
Based on decades of teaching electrical engineering students, Yang and Lee have written this text for a full course in circuit theory or circuit analysis. Researchers and engineers without extensive electrical engineering backgrounds will also find this book a helpful introduction to circuit systems.
More details
Edition
1., Auflage
Language
English
Place of publication
Hoboken
United Kingdom
Publishing group
John Wiley and Sons Ltd
Target group
Professional and scholarly
Illustrations
Illustrations
Dimensions
Height: 24.4 cm
Width: 16.8 cm
Thickness: 15 mm
Weight
1150 gr
ISBN-13
978-0-470-82232-6 (9780470822326)
Schweitzer Classification
Persons
Won Y. Yang is a Professor of Electrical Engineering at Chung-Ang University in Seoul, South Korea, where he has taught in the circuit field for over 20 years. He was the lead co-author of Applied Numerical Methods using MATLAB and has written numerous Korean language books in the electronic engineering field, including books on MATLAB for digital communications and control systems. He holds an M.S. in Electrical Engineering from Seoul National University as well as an M.S in Applied Math and a Ph.D in Electrical Engineering, both from the University of Southern California. Seung C. Lee is a Professor in Electrical Engineering at Chung-Ang University in Seoul, South Korea. Between 1985 and 1994 he was an Associate Professor in Computer Science and Electrical Engineering at the University of Texas Institute. He has held senior positions at Hyundai Engineering and Hwashin-Sony.
Content
PREFACE.
CHAPTER 1: BASIC CONCEPTS ON ELECTRIC CIRCUITS.
1.0 SYMBOLS AND UNITS.
1.1 NETWORK VARIABLES.
1.2 CIRCUIT ELEMENTS.
1.3 KIRCHHOFF'S LAWS.
1.4 EQUIVALENT TRANSFROMATION OF SOURCES.
1.5 SERIS AND PARALLEL CONNECTIONS.
Problems.
CHAPTER 2: RESISTOR CIRCUITS.
2.1 COMBINATION OF RESISTORS.
2.2 VOLTAGE/CURRENT DIVIDER.
2.3"-Y( -T) TRANSFORMATION.
2.4 NODE ANALYSIS.
2.5 MESH (LOOP) ANALYSIS.
2.6 COMPARISON OF NODE ANALYSIS AND MESH ANALYSIS.
2.7 THEVENIN/NORTON EQUIVALENT CIRCUITS.
2.8 SUPERPOSITION PRINCIPLE AND LINEARITY.
2.9 OP AMP CIRCUITS WITH RESISTORS.
2.10 TRANSISTOR CIRCUITS.
2.11 LOADING EFFECT AND INPUT/OUTPUT RESISTANCE.
2.12 LOAD LINE ANALYSIS OF NONLINEAR RESISTOR CIRCUITS.
2.13 MORE EXAMPLES OF RESISTOR CIRCUITS.
Problems.
CHAPTER 3: FIRST-ORDER CIRCUITS.
3.1 THE CHARACTERISTICS OF INDUCTORS AND CAPACITORS.
3.2 SERIES-PARALLEL COMBINATION OF INDUCTORS/CAPACITORS.
3.3 CIRCUIT ANALYSIS USING LAPLACE TRANSFORM.
3.4 ANALYSIS OF FIRST ORDER CIRCUITS.
3.5 ANALYSIS OF FIRST-ORDER OP AMP CIRCUITS.
3.6 SINGULAR CIRCUITS.
3.7 SIMULATION USING PSPICE AND MATLAB.
3.8 APPLICATION AND DESIGN OF FIRST-ORDER CIRCUITS.
Problems.
CHAPTER 4: SECOND-ORDER CIRCUITS.
4.1 THE LAPLACE TRANSFORM FOR 2ND-ORDER DIFFERENTIAL EQUATIONS.
4.2 ANALYSIS OF SECOND-ORDER CIRCUITS.
4.3 SECOND-ORDER OP AMP CIRCUITS.
4.4 ANALOGY AND DUALITY.
4.5 TRANSFER FUNCTION, IMPULSE RESPONSE, AND CONVOLUTION.
4.6 THE STEADY-STATE RESPONSE TO A SINUSOIDAL INPUT.
4.7 AN EXAMPLE OF MATLAB ANAYSIS AND PSPICE SIMULATION.
Problems.
CHAPTER 5: MAGNETICALLY COUPLED CIRCUITS.
5.1 SELF INDUCTANCE.
5.2 MUTUAL INDUCTANCE.
5.3 RELATIVE POLARITY OF INDUCED VOLTAGES AND DOT CONVENTION.
5.4 EQUIVALENT MODELS OF MAGNETICALLY COUPLED COILS.
5.5 IDEAL TRANSFORMER.
5.6 LINEAR TRANSFORMER.
5.7 AUTOTRANSFORMERS.
Problems.
CHAPTER 6: AC CIRCUITS.
6.1 SINUSOIDAL SOURCES.
6.2 PHASOR AND AC ANALYSIS.
6.3 AC IMPEDANCE OF PASSIVE ELEMENTS.
6.4 AC CIRCUIT EXAMPLES.
6.5 INSTANTANEOUS, ACTIVE, REACTIVE, AND COMPLEX POWER.
6.6 POWER FACTOR.
6.7 MAXIMUM POWER TRANSFER - IMPEDANCE MATCHING.
6.8 LOAD FLOW CALCULATION.
6.9 DESIGN AND SIMULATION FOR MAXIMUM POWER TRANSFER.
Problems.
CHAPTER 7: THREE-PHASE AC CIRCUITS.
7.1 BALANCED THREE-PHASE VOLTAGES.
7.2 POWER OF BALANCED THREE-PHASE LOAD.
7.3 MEASUREMENT OF THREE-PHASE POWER.
7.4 THREE-PHASE POWER SYSTEM.
7.5 ELECTRIC SHOCK AND GROUNDING.
Problems.
CHAPTER 8: FREQUENCY SELECTIVE CIRCUIT - FILTER.
8.1 LOWPASS FILTER (LPF).
8.2 HIGHPASS FILTER (HPF).
8.3 BANDPASS FILTER (BPF).
8.4 BANDSTOP FILTER (BSF).
8.5 ACTIVE FILTER.
8.6 ANALOG FILTER DESIGN.
Problems.
CHAPTER 9: CIRCUIT ANALYSIS USING FOURIER SERIES.
9.1 FOURIER SERIES.
9.2 COMPUTATION OF FOURIER COEFFICIENTS USING SYMMETRY.
9.3 CIRCUIT ANALYSIS USING FOURIER SERIES.
9.4 FOURIER SERIES AND LAPLACE TRANSFORM.
9.5 RMS VALUE AND POWER OF A NON-SINUSOIDAL PERIODIC SIGNAL.
Problems.
CHAPTER 10: TWO-PORT NETWORKS.
10.1 DEFINITIONS OF TWO-PORT PARAMETERS.
10.2 RELATIONSHIPS AMONG TWO-PORT PARAMETERS.
10.3 RECIPROCITY OF TWO-PORT NETWORKS.
10.4 INTERCONNECTION OF TWO-PORT NETWORKS.
10.5 TWO-PORT NETWORKS HAVING SOURCE/LOAD.
10.6 FEEDBACK AMPLIFIERS AS TWO-PORT NETWORKS.
10.7 CIRCUIT MODELS WITH GIVEN PARAMETERS.
Problems.
APPENDICIES.
Appendix A: Laplace Transform.
Appendix B: Matrix Operations with MATLAB.
Appendix C: Complex Number Operations with MATLAB.
Appendix D: Nonlinear/Differential Equations with MATLAB.
Appendix E: Symbolic Computations with MATLAB.
Appendix F: Useful Formulas.
Appendix G: The Standard Values of Resistors, Capacitors, and Inductors.
Appendix H: OrCAD/PSpice.
Appendix I: MATLAB Introduction.
Appendix J: Solutions of Problems.
REFERENCES.
INDEX.
CHAPTER 1: BASIC CONCEPTS ON ELECTRIC CIRCUITS.
1.0 SYMBOLS AND UNITS.
1.1 NETWORK VARIABLES.
1.2 CIRCUIT ELEMENTS.
1.3 KIRCHHOFF'S LAWS.
1.4 EQUIVALENT TRANSFROMATION OF SOURCES.
1.5 SERIS AND PARALLEL CONNECTIONS.
Problems.
CHAPTER 2: RESISTOR CIRCUITS.
2.1 COMBINATION OF RESISTORS.
2.2 VOLTAGE/CURRENT DIVIDER.
2.3"-Y( -T) TRANSFORMATION.
2.4 NODE ANALYSIS.
2.5 MESH (LOOP) ANALYSIS.
2.6 COMPARISON OF NODE ANALYSIS AND MESH ANALYSIS.
2.7 THEVENIN/NORTON EQUIVALENT CIRCUITS.
2.8 SUPERPOSITION PRINCIPLE AND LINEARITY.
2.9 OP AMP CIRCUITS WITH RESISTORS.
2.10 TRANSISTOR CIRCUITS.
2.11 LOADING EFFECT AND INPUT/OUTPUT RESISTANCE.
2.12 LOAD LINE ANALYSIS OF NONLINEAR RESISTOR CIRCUITS.
2.13 MORE EXAMPLES OF RESISTOR CIRCUITS.
Problems.
CHAPTER 3: FIRST-ORDER CIRCUITS.
3.1 THE CHARACTERISTICS OF INDUCTORS AND CAPACITORS.
3.2 SERIES-PARALLEL COMBINATION OF INDUCTORS/CAPACITORS.
3.3 CIRCUIT ANALYSIS USING LAPLACE TRANSFORM.
3.4 ANALYSIS OF FIRST ORDER CIRCUITS.
3.5 ANALYSIS OF FIRST-ORDER OP AMP CIRCUITS.
3.6 SINGULAR CIRCUITS.
3.7 SIMULATION USING PSPICE AND MATLAB.
3.8 APPLICATION AND DESIGN OF FIRST-ORDER CIRCUITS.
Problems.
CHAPTER 4: SECOND-ORDER CIRCUITS.
4.1 THE LAPLACE TRANSFORM FOR 2ND-ORDER DIFFERENTIAL EQUATIONS.
4.2 ANALYSIS OF SECOND-ORDER CIRCUITS.
4.3 SECOND-ORDER OP AMP CIRCUITS.
4.4 ANALOGY AND DUALITY.
4.5 TRANSFER FUNCTION, IMPULSE RESPONSE, AND CONVOLUTION.
4.6 THE STEADY-STATE RESPONSE TO A SINUSOIDAL INPUT.
4.7 AN EXAMPLE OF MATLAB ANAYSIS AND PSPICE SIMULATION.
Problems.
CHAPTER 5: MAGNETICALLY COUPLED CIRCUITS.
5.1 SELF INDUCTANCE.
5.2 MUTUAL INDUCTANCE.
5.3 RELATIVE POLARITY OF INDUCED VOLTAGES AND DOT CONVENTION.
5.4 EQUIVALENT MODELS OF MAGNETICALLY COUPLED COILS.
5.5 IDEAL TRANSFORMER.
5.6 LINEAR TRANSFORMER.
5.7 AUTOTRANSFORMERS.
Problems.
CHAPTER 6: AC CIRCUITS.
6.1 SINUSOIDAL SOURCES.
6.2 PHASOR AND AC ANALYSIS.
6.3 AC IMPEDANCE OF PASSIVE ELEMENTS.
6.4 AC CIRCUIT EXAMPLES.
6.5 INSTANTANEOUS, ACTIVE, REACTIVE, AND COMPLEX POWER.
6.6 POWER FACTOR.
6.7 MAXIMUM POWER TRANSFER - IMPEDANCE MATCHING.
6.8 LOAD FLOW CALCULATION.
6.9 DESIGN AND SIMULATION FOR MAXIMUM POWER TRANSFER.
Problems.
CHAPTER 7: THREE-PHASE AC CIRCUITS.
7.1 BALANCED THREE-PHASE VOLTAGES.
7.2 POWER OF BALANCED THREE-PHASE LOAD.
7.3 MEASUREMENT OF THREE-PHASE POWER.
7.4 THREE-PHASE POWER SYSTEM.
7.5 ELECTRIC SHOCK AND GROUNDING.
Problems.
CHAPTER 8: FREQUENCY SELECTIVE CIRCUIT - FILTER.
8.1 LOWPASS FILTER (LPF).
8.2 HIGHPASS FILTER (HPF).
8.3 BANDPASS FILTER (BPF).
8.4 BANDSTOP FILTER (BSF).
8.5 ACTIVE FILTER.
8.6 ANALOG FILTER DESIGN.
Problems.
CHAPTER 9: CIRCUIT ANALYSIS USING FOURIER SERIES.
9.1 FOURIER SERIES.
9.2 COMPUTATION OF FOURIER COEFFICIENTS USING SYMMETRY.
9.3 CIRCUIT ANALYSIS USING FOURIER SERIES.
9.4 FOURIER SERIES AND LAPLACE TRANSFORM.
9.5 RMS VALUE AND POWER OF A NON-SINUSOIDAL PERIODIC SIGNAL.
Problems.
CHAPTER 10: TWO-PORT NETWORKS.
10.1 DEFINITIONS OF TWO-PORT PARAMETERS.
10.2 RELATIONSHIPS AMONG TWO-PORT PARAMETERS.
10.3 RECIPROCITY OF TWO-PORT NETWORKS.
10.4 INTERCONNECTION OF TWO-PORT NETWORKS.
10.5 TWO-PORT NETWORKS HAVING SOURCE/LOAD.
10.6 FEEDBACK AMPLIFIERS AS TWO-PORT NETWORKS.
10.7 CIRCUIT MODELS WITH GIVEN PARAMETERS.
Problems.
APPENDICIES.
Appendix A: Laplace Transform.
Appendix B: Matrix Operations with MATLAB.
Appendix C: Complex Number Operations with MATLAB.
Appendix D: Nonlinear/Differential Equations with MATLAB.
Appendix E: Symbolic Computations with MATLAB.
Appendix F: Useful Formulas.
Appendix G: The Standard Values of Resistors, Capacitors, and Inductors.
Appendix H: OrCAD/PSpice.
Appendix I: MATLAB Introduction.
Appendix J: Solutions of Problems.
REFERENCES.
INDEX.