Circuit Systems with MATLAB and PSpice 1st Edition by Won Yang, Seung Lee ISBN 978-0470822326 0470822325
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Product details:
ISBN 10: 0470822325
ISBN 13: 978-0470822326
Author: Won Y. Yang, Seung C. Lee
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 7.0 and PSpice 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 analyses and PSpice 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.
Table of contents:
1 Basic Concepts on Electric Circuits
1.1 Symbols and Units
1.2 Network Variables
1.2.1 Voltage and Current
1.2.2 Electric Power and Energy
1.2.3 Reference Polarity and Direction of Voltage/Current
1.2.4 Passive Sign Convention
1.3 Circuit Elements
1.3.1 Passive Elements
1.3.2 Active Elements
1.3.3 Operational Amplifier
1.3.4 Transistor
1.4 Kirchhoff’s Laws
1.4.1 Nodes, Branches, and Meshes/Loops
1.4.2 Kirchhoff’s Current Law (KCL)
1.4.3 Kirchhoff’s Voltage Law (KVL)
1.4.4 The Number of KCL/KVL Equations
1.5 Equivalent Transformation of Sources
1.5.1 Combination of Several Sources
1.5.2 Voltage-Current Source Transformation
1.5.3 Examples of Source Transformation
1.6 Series and Parallel Connections
Problems
2 Resistor Circuits
2.1 Combination of Resistors
2.1.1 Series Combination of Resistors
2.1.2 Parallel Combination of Resistors
2.2 Voltage/Current Divider
2.2.1 Voltage Divider
2.2.2 Current Divider
2.3 Δ-Υ(Π-Τ) Transformation
2.3.1 Δ-Υ(Π-Τ) Conversion Formula
2.3.2 Υ-Δ(Τ-Π) Conversion Formula
2.4 Node Analysis
2.4.1 Circuits Having No Dependent Sources
2.4.2 Circuits Having Dependent Sources
2.5 Mesh (Loop) Analysis
2.5.1 Circuits Having No Dependent Sources
2.5.2 Circuits Having Dependent Sources
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
2.9.1 Inverting OP Amp Circuit
2.9.2 Noninverting OP Amp Circuit
2.9.3 Voltage Follower
2.9.4 More Exact Analysis of OP Amp Circuits
2.9.5 OP Amp Circuits with Positive Feedback
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
3 First-Order Circuits
3.1 Characteristics of Inductors and Capacitors
3.1.1 Inductor
3.1.2 Capacitor
3.2 Series-Parallel Combination of Inductors/Capacitors
3.2.1 Series-Parallel Combination of Inductors
3.2.2 Series-Parallel Combination of Capacitors
3.3 Circuit Analysis Using the Laplace Transform
3.3.1 The Laplace Transform for a First-Order Differential Equation
3.3.2 Transformed Equivalent Circuits for R, L, and C
3.4 Analysis of First-Order Circuits
3.4.1 DC-Excited RL Circuits
3.4.2 DC-Excited RC Circuits
3.4.3 Time-Constant and Natural Responses of First-Order Circuits
3.4.4 Sequential Switching
3.4.5 AC-Excited First-Order Circuits
3.5 Analysis of First-Order OP Amp Circuits
3.5.1 First-Order OP Amp Circuits with Negative Feedback
3.5.2 First-Order OP Amp Circuits with Positive Feedback
3.6 LRL Circuits and CRC Circuits
3.6.1 An LRL Circuit
3.6.2 A CRC Circuit
3.6.3 Conservation of Flux Linkage and Charge
3.6.4 A Measure Against Violation of the Continuity Rule on the Inductor Current
3.7 Simulation Using PSpice and MATLAB
3.7.1 An RC Circuit with Sequential Switching
3.7.2 An AC-Excited RL Circuit
3.8 Application and Design of First-Order Circuits
Problems
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4 Second-Order Circuits
4.1 The Laplace Transform For Second-Order Differential Equations
4.1.1 Overdamped Case with Two Distinct Real Characteristic Roots
4.1.2 Critically Damped Case with Double Real Characteristic Roots
4.1.3 Underdamped Case with Two Distinct Complex Characteristic Roots
4.1.4 Stability of a System and Location of its Characteristic Roots
4.2 Analysis of Second-Order Circuits
4.2.1 A Series RLC Circuit
4.2.2 A Parallel RLC Circuit
4.2.3 Two-Mesh/Node Circuit
4.2.4 Circuits Having Dependent Sources
4.2.5 Thevenin Equivalent Circuit
4.3 Second-Order OP Amp Circuits
4.4 Analogy and Duality
4.4.1 Analogy
4.4.2 Duality
4.5 Transfer Function, Impulse Response, and Convolution
4.5.1 Linear Systems
4.5.2 Time-Invariant Systems
4.5.3 The Pulse Response of a Linear Time-Invariant System
4.5.4 The Input-Output Relationship of a Linear Time-Invariant System
4.6 The Steady-State Response to a Sinusoidal Input
4.7 An Example of MATLAB Analysis and PSpice Simulation Problems
5 Magnetically Coupled Circuits
5.1 Self-Inductance
5.2 Mutual Inductance
5.3 Relative Polarity of Induced Voltages and Dot Convention
5.3.1 Dot Convention and Sign of Mutual Inductance Terms
5.3.2 Measurement of the Relative Winding Direction
5.3.3 Measurement of Mutual Inductance
5.3.4 Energy in Magnetically Coupled Coils
5.4 Equivalent Models of Magnetically Coupled Coils
5.4.1 T-Equivalent Circuit
5.4.2 II-Equivalent Circuit
5.5 Ideal Transformer
5.6 Linear Transformer
5.7 Autotransformers
Problems
6 AC Circuits
6.1 Sinusoidal Sources
6.2 Phasor and AC Analysis
6.3 AC Impedance of Passive Elements
6.3.1 Resistor
6.3.2 Inductor
6.3.3 Capacitor
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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
7 Three-Phase AC Circuits
7.1 Balanced Three-Phase Voltages
7.2 Power of Balanced Three-Phase Loads
7.3 Measurement of Three-Phase Power
7.4 Three-Phase Power System
7.5 Electric Shock and Grounding Problems
8 Frequency Selective Circuit – Filter
8.1 Lowpass Filter (LPF)
8.1.1 Series LR Circuit
8.1.2 Series RC Circuit
8.2 Highpass Filter (HPF)
8.2.1 Series CR Circuit
8.2.2 Series RL Circuit
8.3 Bandpass Filter (BPF)
8.3.1 Series RLC Circuit and Series Resonance
8.3.2 Parallel RLC Circuit and Parallel Resonance
8.4 Bandstop Filter (BSF)
8.4.1 Series RLC Circuit
8.4.2 Parallel RLC Circuit
8.5 Active Filter
8.5.1 First-Order Active Filter
8.5.2 Second-Order Active LPF/HPF
8.5.3 Second-Order Active BPF
8.5.4 Second-Order Active BSF
8.6 Analog Filter Design
Problems
9 Circuits 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 Nonsinusoidal Periodic Signal
9.5.1 RMS Value and Distortion Factor of a Nonsinusoidal Periodic Signal
9.5.2 Power and Power Factor of a Nonsinusoidal Periodic Signal
Problems
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10 Two-Port Networks
10.1 Definitions of Two-Port Parameters
10.2 Relationships Among Two-Port Parameters
10.2.1 Thez-Parameters and a-Parameters
10.2.2 The a-Parameters and h-Parameters
10.2.3 Thez-Parameters and h-Parameters
10.3 Reciprocity of a Two-Port Network
10.4 Interconnection of Two-Port Networks
10.4.1 Series Connection and-Parameters
10.4.2 Parallel (Shunt) Connection andy-Parameters
10.4.3 Series-Parallel (Shunt) Connection and h-Parameters
10.4.4 Parallel (Shunt)-Series Connection and g-Parameters
10.4.5 Cascade Connection anda-Parameters
10.4.6 Curse of the Port Condition (Current Requirement)
10.5 Two-Port Networks Having Source/Load
10.5.1 Input Impedance
10.5.2 Voltage Gain
10.5.3 Current Gain
10.5.4 (Thevenin) Equivalent Impedance Seen from the Output
10.5.5 (Thevenin) Equivalent Source Seen from the Output
10.5.6 The Parameters of an Overall Two-Port Network
10.6 Feedback Amplifiers as Two-Port Networks
10.6.1 Series-Parallel (Shunt) Feedback Amplifier
10.6.2 Series-Series Feedback Amplifier
10.6.3 Parallel-Parallel Feedback Amplifier
10.6.4 Parallel (Shunt)-Series Feedback Amplifier
10.6.5 General Feedback Structure
10.7 Circuit Models with Given Parameters
10.7.1 Circuit Model with Givenz-Parameters
10.7.2 Circuit Model with Giveny-Parameters
10.7.3 Circuit Model with Givenh and g-Parameters
10.7.4 Circuit Model with Givena and b-Parameters
Problems
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Tags: Won Yang, Seung Lee, Circuit Systems, MATLAB and PSpice