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Advanced AC Electronics: Principles and Applications [Multiple-component retail product]

  • Formaat: Multiple-component retail product, 480 pages, kõrgus x laius x paksus: 236x206x25 mm, kaal: 1022 g, Illustrations, Contains 1 Hardback and 1 CD-ROM
  • Ilmumisaeg: 18-Jun-2003
  • Kirjastus: Delmar Cengage Learning
  • ISBN-10: 076682330X
  • ISBN-13: 9780766823303
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  • Multiple-component retail product
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  • Formaat: Multiple-component retail product, 480 pages, kõrgus x laius x paksus: 236x206x25 mm, kaal: 1022 g, Illustrations, Contains 1 Hardback and 1 CD-ROM
  • Ilmumisaeg: 18-Jun-2003
  • Kirjastus: Delmar Cengage Learning
  • ISBN-10: 076682330X
  • ISBN-13: 9780766823303
Teised raamatud teemal:
Jacob (technology, Purdue University) explains how to apply AC circuit techniques to electronic circuits in this text/CD-ROM for a freshman course in circuit theory and analysis. Students will learn how to apply basic laws and analysis techniques to a variety of passive and active circuits that process sinusoidal and repetitive non-sinusoidal signals. MATLAB, MultiSIM, and other software applications are integrated into the text and used in lab exercises alongside manually derived solutions. The CD-ROM contains MultiSIM simulations and a textbook edition of MultiSIM. Annotation (c) Book News, Inc., Portland, OR (booknews.com)

From the moment they open Advanced AC Electronics: Principles and Applications, readers will become actively involved in learning how to apply AC circuit techniques to electronics circuits that are interesting and actually do something useful! Rather than presenting AC electronics as a series of seemingly magical rules and incantations, this book integrates AC circuit theory tools with electronics, interweaves topics as needed, and introduces the use of circuit analysis tools on a just-in-time basis to support development of electronics circuits. It engages readers in applying circuit theory to a wide variety of passive and active electronics that respond to a sinusoidal signal with both a change in magnitude and a shift in the sine wave's phase. Immediately upon introduction, each technique is applied to a host of examples, including: commercial electrical power production and distribution, industrial motor performance and control, audio systems, instrumentation, radio frequency, and communications circuits. Motors, rf and audio cables, loudspeakers, thyristors, transition and op amp amplifiers are also introduced early on, capturing attention while guiding readers in their examination of real-world responses to sinusoids. Level and rigor make Advanced AC Electronics an ideal choice for programs accredited by the Accreditation Board for Engineering and Technology (ABET).
Preface xi
Part I Sinusoidal Fundamentals
1(134)
Sinusoidal Waveforms
3(26)
Introduction
3(1)
Objectives
3(1)
The Basic Sine Function
4(4)
Amplitude
8(5)
Root-mean-squared Values
9(4)
Frequency and Angular Velocity
13(5)
Phase Shift
18(11)
Summary
23(1)
Problems
24(2)
Phase Angle Measurement Lab Exercise
26(3)
Phasors
29(18)
Introduction
29(1)
Objectives
29(1)
Polar Notation
30(2)
Rectangular Notation
32(1)
Conversions
33(4)
Mathematical Operations
37(10)
Summary
41(1)
Problems
42(2)
Phasor Measurements Lab Exercise
44(3)
Impedance
47(28)
Introduction
47(1)
Objectives
47(1)
Derivative of a Sine Wave
48(3)
It's Just Slope
48(2)
The Calculus Approach
50(1)
Impedance of a Resistance
51(1)
Impedance of an Inductance
52(3)
Impedance of a Capacitance
55(4)
Practical Impedances
59(16)
Inductance of a Wire
59(2)
Capacitance of a Cable
61(3)
AC Motor's Complex Impedance
64(4)
Summary
68(1)
Problems
69(2)
Impedance Measurement Lab Exercise
71(4)
Series Circuits
75
Introduction
75(1)
Objectives
75(1)
Review of Fundamental Concepts
76(2)
RC and RL Circuits
78(11)
Simple, Passive Cross-Over Networks
79(5)
RC Coupled Amplifiers
84(5)
RCL Circuits
89
Simple, Mid-range Cross-Over Network
89(4)
Series Tuned Amplifier
93(2)
Power Supply Bus Decoupling
95(4)
Summary
99(1)
Problems
100(4)
Series Tuned Amplifier Lab Exercise
104
Parallel Circuits
61(74)
Introduction
61(1)
Objectives
61(47)
Review of Fundamental Concepts
108(3)
RC and RL Circuits
111(11)
Residential Circuit
113(4)
Amplifier Frequency Limiting
117(5)
RCL Circuits
122(13)
Power Factor Correction
122(4)
Summary
126(1)
Problems
127(3)
Parallel Circuits Lab Exercise
130(5)
Part II Filter Applications
135(144)
Filter Terminology
137(26)
Introduction
137(1)
Objectives
137(1)
The Frequency Response Plot and Filter Types
138(2)
The Frequency Response Plot's Horizontal Axis
140(4)
The Frequency Response Plot's Vertical Axis
144(6)
Roll-off Rate and Filter Order
150(2)
Cut-off Frequencies
152(11)
Summary
157(1)
Problems
158(2)
Frequency Response Lab Exercise
160(3)
Low-pass Filters
163(30)
Introduction
163(1)
Objectives
163(1)
The RC Low-pass Filter
164(6)
Quick-look
164(1)
Gain Derivation
165(3)
Half-power Point Frequency, f-3dB
168(2)
Critical Frequency, fo
170(1)
The LR Low-pass Filter
170(5)
Quick-look
171(1)
Gain Derivation
171(1)
Half-power Point Frequency, f-3dB
172(1)
Critical Frequency, fo
173(2)
Simple Active Low-pass Filter
175(8)
Quick-look
176(1)
Gain Derivation
177(2)
Half-power Point Frequency, f--3dB
179(1)
Critical Frequency, fo
180(3)
Higher Order Low-pass Filters
183(10)
Summary
187(1)
Problems
188(2)
Low-pass Filters Lab Exercise
190(3)
High-pass Filters
193(26)
Introduction
193(1)
Objectives
193(1)
The CR High-pass Filter
194(6)
Quick-look
194(1)
Gain Derivation
195(2)
Half-power Point Frequency, f--3dB
197(1)
Critical Frequency, fo
198(2)
The RL High-pass Filter
200(3)
Quick-look
200(1)
Gain Derivation
200(1)
Half-power Point Frequency, f--3dB
201(1)
Critical Frequency, fo
202(1)
Simple Active High-pass Filter
203(7)
Quick-look
204(1)
Gain Derivation
204(1)
Half-power Point Frequency, f-3dB
205(1)
Critical Frequency, fo
206(4)
Higher Order High-pass Filters
210(9)
Summary
213(1)
Problems
214
High-pass Filters Lab Exercise
190(29)
Band-pass Filters and Resonance
219(30)
Introduction
219(1)
Objectives
219(1)
Band-pass Terminology
220(3)
Active High-pass Low-pass Filter
223(3)
Resonance
226(1)
Series Resonance
227(8)
Gain Derivation
229(1)
Resonance Frequency, fr = fcenter
230(1)
Critical Frequency, fo
231(1)
Quality and Selectivity, Q
232(2)
The Effects of the Inductor's Resistance
234(1)
Parallel Resonance
235(14)
Quality and Selectivity, Q
237(4)
The Effects of the Inductor's Resistance
241(2)
Summary
243(1)
Problems
244(2)
Band-pass Filters Lab Exercise
246(3)
Amplifier Frequency Response
249(30)
Introduction
249(1)
Objectives
249(1)
Reactive Networks Around an Op Amp Amplifier
250(9)
Parallel RC in the Feedback Loop
250(5)
Series RC in the Input Loop
255(4)
Gain Bandwidth Product
259(9)
Open-loop Frequency Response
259(1)
Closed-loop Frequency Response
260(4)
Small-signal Rise Time
264(4)
Slew Rate
268(11)
Response to a Step
268(2)
Full-power Bandwidth
270(3)
Summary
273(1)
Problems
274
Op Amp Speed Lab Exercise
246(33)
Part III Fourier Series Analysis
279(82)
Superposition
281(16)
Introduction
281(1)
Objectives
281(1)
Basic Principles
282(2)
AC and DC Circuit Superposition
284(13)
Summary
293(1)
Problems
294(3)
Fourier Series of Nonsinusoidal Waveforms
297(32)
Introduction
297(1)
Objectives
297(1)
The Fourier Series
298(1)
Root-Mean-Squared Value
299(2)
Rectangular Waves
301(7)
Square Wave
301(5)
Pulses
306(2)
Ramps
308(6)
Triangle Wave
308(2)
Sawtooth
310(4)
Rectified Sine Waves
314(5)
Half-wave Rectified Sinusoid
314(2)
Full-wave Rectified Sinusoid
316(3)
Summary Table
319(10)
Summary
320(1)
Problems
321(2)
Harmonics Lab Exercise
323(6)
Circuit Analysis with Nonsinusoidal Waveforms
329(32)
Introduction
329(1)
Objectives
329(1)
The Fourier Analysis Worksheet
330(2)
Low-pass Filters
332(9)
RC Low-pass Filters
332(4)
Op Amp Integrator
336(4)
Effects of a Low-pass Filter
340(1)
High-pass Filters
341(20)
CR High-pass Filters
341(5)
Op Amp Differentiator
346(4)
RL High-pass Filters
350(3)
Effects of a High-pass Filter
353(1)
Summary
354(1)
Problems
355(1)
Transient Analysis Lab Exercise
356(5)
Part IV Advanced Analysis Techniques
361(40)
Series-Parallel Analysis by Impedance Combination
363(20)
Introduction
363(1)
Objectives
363(1)
High-frequency Cabling
364(9)
The x 10 Oscilloscope Probe
373(10)
Summary
378(1)
Problems
379(1)
Impedance Combination Lab Exercise
380(3)
Mesh and Nodal Analysis
383(18)
Introduction
383(1)
Objectives
383(1)
Mesh Analysis
384(8)
Kirchhoff's Voltage Law Approach
384(2)
By Inspection
386(2)
Solving the Simultaneous Equations
388(4)
Nodal Analysis
392(9)
DC Circuit
392(2)
AC Circuit
394(2)
Summary
396(1)
Problems
397(1)
Mesh and Nodal Analysis Lab Exercise
398(3)
Part V Power Systems
401(40)
Single-phase AC Power
403(18)
Introduction
403(1)
Objectives
403(1)
Definitions
404(5)
Mechanical Work and Power
404(1)
Electrical Power
405(1)
Power Dissipated by a Resistor
406(1)
Power Dissipated by an Inductor
407(2)
Power Dissipated by a Capacitor
409(1)
Real, Reactive, and Apparent Power
409(5)
Power Factor Correction
414(7)
Power Factor Definition
414(1)
Full Power Factor Correction
415(3)
Partial Power Factor Correction
418(1)
Summary
419(1)
Problems
419(2)
Three-phase Systems
421(20)
Introduction
421(1)
Objectives
421(1)
Three-phase Generator
422(3)
Wye Connected Loads
425(5)
Delta Connected Loads
430(11)
Summary
434(1)
Problems
435(2)
Three-phase Lab Exercise
437(4)
Answers to Odd-Numbered Problems 441(8)
Laboratory Parts 449(2)
Index 451