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Analysis and Design of Linear Circuits International student edition [Kõva köide]

  • Formaat: Hardback, 896 pages, kõrgus x laius: 261x207 mm, kaal: 1814 g, illustrations, index
  • Ilmumisaeg: 03-Jul-2000
  • Kirjastus: John Wiley & Sons Inc
  • ISBN-10: 0471386790
  • ISBN-13: 9780471386797
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  • Formaat: Hardback, 896 pages, kõrgus x laius: 261x207 mm, kaal: 1814 g, illustrations, index
  • Ilmumisaeg: 03-Jul-2000
  • Kirjastus: John Wiley & Sons Inc
  • ISBN-10: 0471386790
  • ISBN-13: 9780471386797
Teised raamatud teemal:
Thomas and Rosa offer a learn-by-doing approach to linear circuits. They discuss the major elements of circuit design (including Laplace transforms, new passive and active elements, pole-zero diagrams, Bode diagrams, Fourier series, and time-varying circuits), and provide skill-building exercises. Furthermore, they show how to evaluate and select the best design from several correct approaches. This new edition covers five of today's most widely used programs: Excel, MATLAB, Mathcard, Electronics Workbench, and PSpice. Annotation c. Book News, Inc., Portland, OR (booknews.com)

Learn Linear Circuits by Actually Designing Them! With more examples, problems, applications, and tools, the Third Edition of Thomas and Rosa's The Analysis and Design of Linear Circuits presents an effective learn-by-doing approach to linear circuits. The authors not only discuss Laplace transforms, new passive and active elements, time-varying circuits, and fundamental analysis and design concepts, they also provide valuable skill-building exercises and tools. Here's how Thomas and Rosa's learn-by-doing approach works:
* Apply concepts to practical problems. Throughout the text, the authors maintain a steady focus circuit design and include a greatly revised set of design examples, exercises, and homework problems.
* Master the most modern software tools. The new edition now covers five of today's most widely used programs: Excel (r), Matlab(r), Electronics Workbench(r), and PSpice(r).
* Explore real-world applications. The Third Edition now features many new real-world applications that are especially relevant to computer engineering, instrumentation, electronics, and signals.
* Build circuits you can use. The text's early coverage of the Ideal Op-Amp will help readers design practical interface circuits, instrumentation systems, and cascade filters.
* Evaluate competing designs. Thomas and Rosa show how to evaluate and select the best design from several correct approaches.
* Develop circuit analysis and design skills. The text provides many opportunities to apply Laplace and related tools such as pole-zero diagrams, Bode diagrams, and Fourier series. This constant exposure to analysis and design tools will build practical skills.
Introduction
1(15)
About This Book
2(1)
Symbols and Units
3(1)
Circuit Variables
4(12)
Summary
11(1)
Problems
12(3)
Integrating Problems
15(1)
Basic Circuit Analysis
16(56)
Element Constraints
17(5)
Connection Constraints
22(8)
Combined Constraints
30(5)
Equivalent Circuits
35(6)
Voltage and Current Division
41(7)
Circuit Reduction
48(6)
Computer-aided Circuit Analysis
54(18)
Summary
58(1)
Problems
58(10)
Integrating Problems
68(4)
Circuit Analysis Techniques
72(76)
Node-voltage Analysis
73(15)
Mesh-current Analysis
88(9)
Linearity Properties
97(8)
Thevenin and Norton Equivalent Circuits
105(13)
Maximum Signal Transfer
118(3)
Interface Circuit Design
121(27)
Summary
131(1)
Problems
132(12)
Integrating Problems
144(4)
Active Circuits
148(76)
Linear Dependent Sources
149(2)
Analysis of Circuits with Dependent Sources
151(13)
The Transistor
164(5)
The Operational Amplifier
169(7)
OP AMP Circuit Analysis
176(15)
OP AMP Circuit Design
191(12)
The Comparator
203(21)
Summary
206(1)
Problems
207(11)
Integrating Problems
218(6)
Signal Waveforms
224(40)
Introduction
225(2)
The Step Waveform
227(4)
The Exponential Waveform
231(4)
The Sinusoidal Waveform
235(8)
Composite Waveforms
243(5)
Waveform Partial Descriptors
248(16)
Summary
255(1)
Problems
256(5)
Integrating Problems
261(3)
Capacitance and Inductance
264(34)
The Capacitor
265(7)
The Inductor
272(6)
Dynamic OP AMP Circuits
278(7)
Equivalent Capacitance and Inductance
285(13)
Summary
288(1)
Problems
289(4)
Integrating Problems
293(5)
First - And Second-Order Circuits
298(72)
RC and RL Circuits
299(10)
First-order Circuit Step Response
309(9)
Initial and Final Conditions
318(5)
First-order Circuit Sinusoidal Response
323(7)
The Series RLC Circuit
330(10)
The Parallel RLC Circuit
340(5)
Second-order Circuit Step Response
345(7)
Some Other Second-order Circuits
352(18)
Summary
356(1)
Problems
357(9)
Integrating Problems
366(4)
Sinusoidal Steady-State Response
370(60)
Sinusoids and Phasors
371(6)
Phasor Circuit Analysis
377(5)
Basic Circuit Analysis with Phasors
382(11)
Circuit Theorems with Phasors
393(10)
General Circuit Analysis with Phasors
403(10)
Energy and Power
413(17)
Summary
418(1)
Problems
419(9)
Integrating Problems
428(2)
Laplace Transforms
430(50)
Signal Waveforms and Transforms
431(4)
Basic Properties and Pairs
435(9)
Pole-zero Diagrams
444(3)
Inverse Laplace Transforms
447(6)
Some Special Cases
453(5)
Circuit Response Using Laplace Transforms
458(10)
Initial Value and Final Value Properties
468(12)
Summary
471(1)
Problems
471(6)
Integrating Problems
477(3)
s-Domain Circuit Analysis
480(58)
Transformed Circuits
481(9)
Basic Circuit Analysis in the s Domain
490(5)
Circuit Theorems in the s Domain
495(11)
Node-voltage Analysis in the s Domain
506(13)
Mesh-current Analysis in the s Domain
519(6)
Summary of s-Domain Circuit Analysis
525(13)
Summary
528(1)
Problems
528(8)
Integrating Problems
536(2)
Network Functions
538(53)
Definition of a Network Function
539(3)
Network Functions of One- and Two-port Circuits
542(12)
Network Functions and Impulse Response
554(2)
Network Functions and Step Response
556(5)
Network Functions and Sinusoidal Steady-state Response
561(5)
Network Function Design
566(25)
Summary
581(1)
Problems
582(6)
Integrating Problems
588(3)
Frequency Response
591(78)
Frequency-response Descriptors
592(5)
First-order Circuit Frequency Response
597(16)
Second-order Circuit Frequency Response
613(14)
The Frequency Response of RLC Circuits
627(7)
Bode Diagrams
634(10)
Bode Diagrams with Complex Critical Frequencies
644(7)
Frequency Response and Step Response
651(18)
Summary
656(1)
Problems
657(9)
Integrating Problems
666(3)
Fourier Series
669(34)
Overview of Fourier Analysis
670(2)
Fourier Coefficients
672(9)
Waveform Symmetries
681(3)
Circuit Analysis Using Fourier Series
684(5)
RMS Value and Average Power
689(14)
Summary
694(1)
Problems
695(6)
Integrating Problems
701(2)
Analog Filter Design
703(57)
Frequency-domain Signal Processing
704(1)
Design with First-order Circuits
705(9)
Design with Second-order Circuits
714(8)
Low-pass Filter Design
722(18)
High-pass Filter Design
740(4)
Bandpass and Bandstop Filter Design
744(16)
Summary
749(1)
Problems
749(8)
Integrating Problems
757(3)
Mutual Inductance
760(32)
Coupled Inductors
761(3)
The Dot Convention
764(3)
Energy Analysis
767(2)
The Ideal Transformer
769(6)
Transformers in the Sinusoidal Steady State
775(5)
Transformer Equivalent Circuits
780(12)
Summary
785(1)
Problems
785(5)
Integrating Problems
790(2)
Power in the Sinusoidal Steady State
792(1)
Average and Reactive Power
793(3)
Complex Power
796(4)
AC Power Analysis
800(3)
Load-flow Analysis
803(7)
Three-phase Circuits
810(4)
Three-phase AC Power Analysis
814(10)
Summary
824(1)
Problems
824(7)
Integrating Problems
831
Appendix A--Standard Values A-1
Appendix B--Solution of Linear Equations A-2
Appendix C--Complex Numbers A-12
Appendix D--References A-16
Answers to Selected Problems A-19
Index I-1