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E-raamat: Schaum's Outline of Electric Circuits, 6th edition

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  • Formaat: 352 pages
  • Ilmumisaeg: 08-Nov-2013
  • Kirjastus: McGraw-Hill Professional
  • Keel: eng
  • ISBN-13: 9780071830447
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Schaum's Outline of Electric Circuits, 6th editionSuurem pilt
  • Formaat: 352 pages
  • Ilmumisaeg: 08-Nov-2013
  • Kirjastus: McGraw-Hill Professional
  • Keel: eng
  • ISBN-13: 9780071830447
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Tough Test Questions? Missed Lectures? Not Enough Time?

Fortunately, there's Schaum's. This all-in-one-package includes more than 500 fully solved problems, examples, and practice exercises to sharpen your problem-solving skills. Plus, you will have access to 25 detailed videos featuring instructors who explain the most commonly tested problems--it's just like having your own virtual tutor! You'll find everything you need to build confidence, skills, and knowledge for the highest score possible.





More than 40 million students have trusted Schaum's to help them succeed in the classroom and on exams. Schaum's is the key to faster learning and higher grades in every subject. Each Outline presents all the essential course information in an easy-to-follow, topic-by-topic format. You also get hundreds of examples, solved problems, and practice exercises to test your skills.





This Schaum's Outline gives you





500 fully solved problems Extra practice on topics such as amplifiers and operational amplifier circuits, waveforms and signals, AC power, and more Support for all the major textbooks for electric circuits courses







Fully compatible with your classroom text, Schaum's highlights all the important facts you need to know. Use Schaums to shorten your study time--and get your best test scores!





Schaum's Outlines--Problem Solved.
Chapter 1 Introduction
1(6)
1.1 Electrical Quantities and SI Units
1.2 Force, Work, and Power
1.3 Electric Charge and Current
1.4 Electric Potential
1.5 Energy and Electrical Power
1.6 Constant and Variable Functions
Chapter 2 Circuit Concepts
7(17)
2.1 Passive and Active Elements
2.2 Sign Conventions
2.3 Voltage-Current Relations
2.4 Resistance
2.5 Inductance
2.6 Capacitance
2.7 Circuit Diagrams
2.8 Nonlinear Resistors
Chapter 3 Circuit Laws
24(13)
3.1 Introduction
3.2 Kirchhoff's Voltage Law
3.3 Kirchhoff's Current Law
3.4 Circuit Elements in Series
3.5 Circuit Elements in Parallel
3.6 Voltage Division
3.7 Current Division
Chapter 4 Analysis Methods
37(35)
4.1 The Branch Current Method
4.2 The Mesh Current Method
4.3 Matrices and Determinants
4.4 The Node Voltage Method
4.5 Network Reduction
4.6 Input Resistance
4.7 Output Resistance
4.8 Transfer Resistance
4.9 Reciprocity Property
4.10 Superposition
4.11 Thevenin's and Norton's Theorems
4.12 Maximum Power Transfer Theorem
4.13 Two-Terminal Resistive Circuits and Devices
4.14 Interconnecting Two-Terminal Resistive Circuits
4.15 Small-Signal Model of Nonlinear Resistive Devices
Chapter 5 Amplifiers and Operational Amplifier Circuits
72(45)
5.1 Amplifier Model
5.2 Feedback in Amplifier Circuits
5.3 Operational Amplifiers
5.4 Analysis of Circuits Containing Ideal Op Amps
5.5 Inverting Circuit
5.6 Summing Circuit
5.7 Noninverting Circuit
5.8 Voltage Follower
5.9 Differential and Difference Amplifiers
5.10 Circuits Containing Several Op Amps
5.11 Integrator and Differentiator Circuits
5.12 Analog Computers
5.13 Low-Pass Filter
5.14 Decibel (dB)
5.15 Real Op Amps
5.16 A Simple Op Amp Model
5.17 Comparator
5.18 Flash Analog-to-Digital Converter
5.19 Summary of Feedback in Op Amp Circuits
Chapter 6 Waveforms and Signals
117(26)
6.1 Introduction
6.2 Periodic Functions
6.3 Sinusoidal Functions
6.4 Time Shift and Phase Shift
6.5 Combinations of Periodic Functions
6.6 The Average and Effective (RMS) Values
6.7 Nonperiodic Functions
6.8 The Unit Step Function
6.9 The Unit Impulse Function
6.10 The Exponential Function
6.11 Damped Sinusoids
6.12 Random Signals
Chapter 7 First-Order Circuits
143(36)
7.1 Introduction
7.2 Capacitor Discharge in a Resistor
7.3 Establishing a DC Voltage Across a Capacitor
7.4 The Source-Free RL Circuit
7.5 Establishing a DC Current in an Inductor
7.6 The Exponential Function Revisited
7.7 Complex First-Order RL and RC Circuits
7.8 DC Steady State in Inductors and Capacitors
7.9 Transitions at Switching Time
7.10 Response of First-Order Circuits to a Pulse
7.11 Impulse Response of RC and RL Circuits
7.12 Summary of Step and Impulse Responses in RC and RL Circuits
7.13 Response of RC and RL Circuits to Sudden Exponential Excitations
7.14 Response of RC and RL Circuits to Sudden Sinusoidal Excitations
7.15 Summary of Forced Response in First-Order Circuits
7.16 First-Order Active Circuits
Chapter 8 Higher-Order Circuits and Complex Frequency
179(30)
8.1 Introduction
8.2 Series RLC Circuit
8.3 Parallel RLC Circuit
8.4 Two-Mesh Circuit
8.5 Complex Frequency
8.6 Generalized Impedance (R, L, C) in s-Domain
8.7 Network Function and Pole-Zero Plots
8.8 The Forced Response
8.9 The Natural Response
8.10 Magnitude and Frequency Scaling
8.11 Higher-Order Active Circuits
Chapter 9 Sinusoidal Steady-State Circuit Analysis
209(28)
9.1 Introduction
9.2 Element Responses
9.3 Phasors
9.4 Impedance and Admittance
9.5 Voltage and Current Division in the Frequency Domain
9.6 The Mesh Current Method
9.7 The Node Voltage Method
9.8 Thevenin's and Norton's Theorems
9.9 Superposition of AC Sources
Chapter 10 AC Power
237(29)
10.1 Power in the Time Domain
10.2 Power in Sinusoidal Steady State
10.3 Average or Real Power
10.4 Reactive Power
10.5 Summary of AC Power in R, L, and C
10.6 Exchange of Energy between an Inductor and a Capacitor
10.7 Complex Power, Apparent Power, and Power Triangle
10.8 Parallel-Connected Networks
10.9 Power Factor Improvement
10.10 Maximum Power Transfer
10.11 Superposition of Average Powers
Chapter 11 Polyphase Circuits
266(25)
11.1 Introduction
11.2 Two-Phase Systems
11.3 Three-Phase Systems
11.4 Wye and Delta Systems
11.5 Phasor Voltages
11.6 Balanced Delta-Connected Load
11.7 Balanced Four-Wire, Wye-Connected Load
11.8 Equivalent Y- and A-Connections
11.9 Single-Line Equivalent Circuit for Balanced Three-Phase Loads
11.10 Unbalanced Delta-Connected Load
11.11 Unbalanced Wye-Connected Load
11.12 Three-Phase Power
11.13 Power Measurement and the Two-Wattmeter Method
Chapter 12 Frequency Response, Filters, and Resonance
291(44)
12.1 Frequency Response
12.2 High-Pass and Low-Pass Networks
12.3 Half-Power Frequencies
12.4 Generalized Two-Port, Two-Element Networks
12.5 The Frequency Response and Network Functions
12.6 Frequency Response from Pole-Zero Location
12.7 Ideal and Practical Filters
12.8 Passive and Active Filters
12.9 Bandpass Filters and Resonance
12.10 Natural Frequency and Damping Ratio
12.11 RLC Series Circuit; Series Resonance
12.12 Quality Factor
12.13 RLC Parallel Circuit; Parallel Resonance
12.14 Practical LC Parallel Circuit
12.15 Series-Parallel Conversions
12.16 Locus Diagrams
12.17 Bode Diagrams
12.18 Observations
12.19 Special Features of Bode Diagrams
12.20 Summary of First-Order Filters
12.21 Second-Order Filters
12.22 Butterworth Filters
12.23 Scaling the Frequency Response of Filters
Chapter 13 Two-Port Networks
335(24)
13.1 Terminals and Ports
13.2 Z-Parameters
13.3 T-Equivalent of Reciprocal Networks
13.4 Y-Parameters
13.5 Pi-Equivalent of Reciprocal Networks
13.6 Application of Terminal Characteristics
13.7 Conversion between Z- and Y-Parameters
13.8 h-Parameters
13.9 g-Parameters
13.10 Transmission Parameters
13.11 Interconnecting Two-Port Networks
13.12 Choice of Parameter Type
13.13 Summary of Terminal Parameters and Conversion
Chapter 14 Mutual Inductance and Transformers
359(28)
14.1 Mutual Inductance
14.2 Coupling Coefficient
14.3 Analysis of Coupled Coils
14.4 Dot Rule
14.5 Energy in a Pair of Coupled Coils
14.6 Conductively Coupled Equivalent Circuits
14.7 Linear Transformer
14.8 Ideal Transformer
14.9 Autotransformer
14.10 Reflected Impedance
Chapter 15 Circuit Analysis Using Spice and PSpice
387(38)
15.1 Spice and PSpice
15.2 Circuit Description
15.3 Dissecting a Spice Source File
15.4 Data Statements and DC Analysis
15.5 Control and Output Statements in DC Analysis
15.6 Thevenin Equivalent
15.7 Subcircuit
15.8 Op Amp Circuits
15.9 AC Steady State and Frequency Response
15.10 Mutual Inductance and Transformers
15.11 Modeling Devices with Varying Parameters
15.12 Time Response and Transient Analysis
15.13 Specifying Other Types of Sources
15.14 Summary
Chapter 16 The Laplace Transform Method
425(23)
16.1 Introduction
16.2 The Laplace Transform
16.3 Selected Laplace Transforms
16.4 Convergence of the Integral
16.5 Initial-Value and Final-Value Theorems
16.6 Partial-Fractions Expansions
16.7 Circuits in the s-Domain
16.8 The Network Function and Laplace Transforms
Chapter 17 Fourier Method of Waveform Analysis
448(33)
17.1 Introduction
17.2 Trigonometric Fourier Series
17.3 Exponential Fourier Series
17.4 Waveform Symmetry
17.5 Line Spectrum
17.6 Waveform Synthesis
17.7 Effective Values and Power
17.8 Applications in Circuit Analysis
17.9 Fourier Transform of Nonperiodic Waveforms
17.10 Properties of the Fourier Transform
17.11 Continuous Spectrum
Appendix A Complex Number System 481(3)
Appendix B Matrices and Determinants 484(7)
Index 491
Joseph A. Edminister is Professor Emeritus of Electrical Engineering from the University of Akron in Akron, Ohio, where he also served as an assistant dean and acting dean of engineering. Edminister is a registered Professional Engineer in Ohio, a member of the bar in Ohio, and a registered patent attorney. He is also the author of Schaum's Outline of Theory and Problems of Electromagnetics.





Mahmood Nahvi, PhD, is a professor of electrical engineering at California Polytechnic State University in San Luis Obispo, California. Dr. Nahvis areas of special interest and expertise include network theory, control theory, communications engineering, signal processing, neural networks, adaptive control and learning in synthetic and living systems, communication and control in the central nervous system, and engineering education. In the area of engineering education, he has developed computer modules for electric circuits, signals, and systems which improve teaching and learning of the fundamentals of electrical engineering.
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