7th edition. — John Wiley & Sons, Inc., 2011. — 944 p. — ISBN: 978-1-118-06558-7.
The new edition of Thomas' Analysis and Design of Linear Circuits features more skill examples, exercises, and associated problems. Specific topics emphasized are Thevenin Equivalent Circuits, Nodal and Mesh Analysis, Op-Amp Circuits, and Phasor Analysis. Furthermore the text is enhanced with great support to developing fundamental skills by adding similar-type skill problems. New and additional features include: additions to the IM containing worked-out solutions to many exercises; updated ABET section of the IM to reflect the latest changes to Criteria 2000; improved SM to include worked-out solutions showing key intermediate steps with rationale, and where appropriate, METLAB solutions.
As an introduction to the analysis, design, and evaluation of Electric Circuits, this text focuses on developing the student’s design intuition and emphasizes the use of computers to assist in design and evaluation. Early introduction to circuit design motivates the student to create circuit solutions and optimize designs based on real-world constraints. Thomas/Rosa/Toussaint covers three major blocks in sixteen chapters. Chapters 1-4 cover dc circuits including dependent sources, the ideal Op Amp, and interface design. Chapters 5-12 cover ac circuits using both the traditional Phasor approach and a more efficient Laplace-early approach to include a signals chapter and transient and frequency responses in both the time and frequency domains. The last block deals with applications and extensions of the first two blocks covering Fourier Analysis (Ch 13), multipole active filters (Ch 14), coupled coils and transformers (Ch 15), ac power systems (Ch 16), and two-port networks (Ch 17). The text has over 350 worked examples followed by 422 exercises. Over a thousand homework problems ranging from elementary to complex are structured around a sequence of carefully defined learning objectives based on Bloom’s Taxonomy. This edition emphasizes computer-based analysis and design by expanding the number of examples, exercises, and problems using software for mathematical computation and circuit simulation.
About This BookSymbols and Units.
Circuit Variables.
Computational Software Introduction.
Basics circuit analysis.
Element Constraints.
Connection Constraints.
Combined Constraints.
Equivalent Circuits.
Voltage and Current Division.
Circuit Reduction.
Computer-Aided Circuit Analysis.
Circuit analysis techniques.
Node-Voltage Analysis.
Mesh-Current Analysis.
Linearity Properties.
Thevenin and Norton Equivalent Circuits.
Maximum Signal Transfer.
Interface Circuit Design.
Active circuits.
Linear Dependent Sources.
Analysis of Circuits with Dependent Sources.
The Operational Amplifier.
OP AMP Circuit Analysis.
OP AMP Circuit Design.
OP AMP Circuit Applications.
Signal waveforms.
The Step Waveform.
The Exponential Waveform.
The Sinusoidal Waveform.
Composite Waveforms.
Waveform Partial Descriptors.
Capacitance and inductance.
The Capacitor.
The Inductor.
Dynamic OP AMP Circuits.
Equivalent Capacitance and Inductance.
First- and second-order circuits.
RC and RL Circuits.
First-Order Circuit Step Response.
Initial and Final Conditions.
First-Order Circuit Response to Exponential and Sinusoidal Inputs.
The Series RLC Circuit.
The Parallel RLC Circuit.
Second-Order Circuit Step Response.
Sinusoidal steady-state response.
Sinusoids and Phasors.
Phasor Circuit Analysis.
Basic Phasor Circuit Analysis and Design.
Circuit Theorems with Phasors.
General Circuit Analysis with Phasors.
Energy and Power.
Laplace transforms.
Signal Waveforms and Transforms.
Basic Properties and Pairs.
Pole-Zero Diagrams.
Inverse Laplace Transforms.
Circuit Response Using Laplace Transforms.
Initial and Final Value Properties.
s-domain circuit analysis.
Transformed Circuits.
Basic Circuit Analysis in the s Domain.
Circuit Theorems in the s Domain.
Node-Voltage Analysis in the s Domain.
Mesh-Current Analysis in the s Domain.
Summary of s-Domain Circuit Analysis.
Network functions.
Definition of a Network Function.
Network Functions of One- and Two-Port Circuits.
Network Functions and Impulse Response.
Network Functions and Step Response.
Network Functions and Sinusoidal Steady-State Response.
Impulse Response and Convolution.
Network Function Design.
Frequency response.
Frequency-Response Descriptors.
Bode Diagrams.
First-Order Low-Pass and High-Pass Responses.
Bandpass and Bandstop Responses.
The Frequency Response of RLC Circuits.
Bode Diagrams with Real Poles and Zeros.
Bode Diagrams with Complex Poles and Zeros.
Frequency Response and Step Response.
Fourier analysis.
Overview of Fourier Analysis.
Fourier Coefficients.
Waveform Symmetries.
Circuit Analysis Using the Fourier Series.
RMS Value and Average Power.
Fourier Transforms.
Circuit Analysis Using Fourier Transforms.
Impulse Response and Convolution.
Parseval’s Theorem.
Active filter design.
Active Filters.
Second-Order Low-Pass and High-Pass Filters.
Second-Order Bandpass and Bandstop Filters.
Low-Pass Filter Design.
Low-Pass Filter Evaluation.
High-Pass Filter Design.
Bandpass and Bandstop Filter Design.
Mutual Inductance and Transformers.
Coupled Inductors.
The Dot Convention.
Energy Analysis.
The Ideal Transformer.
Linear Transformers.
AC power systems.
Average and Reactive Power.
Complex Power.
Single-Phase Circuit Analysis.
Single-Phase Power Flow.
Balanced Three-Phase Circuits.
Three-Phase Circuit Analysis.
Three-Phase Power Flow.
Two-port networks.
Impedance Parameters.
Admittance Parameters.
Hybrid Parameters.
Transmission Parameters.
Two-Port Conversions and Connections.
Appendixes.