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Fundamentals of Power Electronics [Multiple-component retail product]

  • Formaat: Multiple-component retail product, 600 pages, Illustrations, Contains 1 Paperback / softback and 1 CD-ROM
  • Ilmumisaeg: 11-Aug-2006
  • Kirjastus: Charles River Media
  • ISBN-10: 1584508523
  • ISBN-13: 9781584508526
  • Multiple-component retail product
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  • Formaat: Multiple-component retail product, 600 pages, Illustrations, Contains 1 Paperback / softback and 1 CD-ROM
  • Ilmumisaeg: 11-Aug-2006
  • Kirjastus: Charles River Media
  • ISBN-10: 1584508523
  • ISBN-13: 9781584508526
Shaffer (electrical engineering, Embry-Riddle Aeronautical U.) demonstrates the use of MATLAB for circuit computations, simulations, waveform plots, and spectrum analysis in power electronics, preferring the program to the more commonly used PSpice because of its numerical and graphical talents and its pedagogical qualities. Shaffer's approach to power electronics is also different from standard texts in that periodic waveforms of circuits are modeled as angular functions rather than as time functions, which he finds more mathematically elegant. Eight chapters cover principles of electrical power, diode rectifier circuits, phase-controlled rectifier circuits, DC-DC converters, boost and buck/boost converters, dynamic modeling and simulation of DC-DC converters, DC-AC inverters, and thermal management. The CD-ROM contains MATLAB script files for examples and exercises requiring numerical computations, as well as the function files used as tools in each chapter. Annotation ©2006 Book News, Inc., Portland, OR (booknews.com)



Most power electronics textbooks use PSpice for the simulation of circuits, even though MATLAB is a much easier and user-friendly tool. Fundamentals of Power Electronics Using MATLAB teaches students and engineers how to use MATLAB as a simulation and computational tool for power electronics. Designed as a hands-on reference, the scope of the material in the text is not as broad as other reference-style texts, thus making the material less intimidating and more attainable to the reader. Each portion of the text starts with an example based on the section material, followed by a detailed solution. A conclusion is then drawn to emphasize the ?point? of the problem and finally an exercise similar to the example is presented to challenge engineer. This format provides an immediate illustration of how to use the material and an opportunity for students to apply the material on their own. The text also introduces sliding mode control (SMC) of converter circuits where the converter is treated as a variable structure system, in addition to traditional pulse-width-modulation (PWM) control. SMC is a relatively new method of control and is a robust and attractive alternative to PWM. Engineers and students do not need to be proficient in MATLAB to work along with the text because a toolbox is provided on the companion CD-ROM that allows them to use MATLAB and obtain results immediately. The toolbox provides functions to perform power computations, waveform analysis, and power converter circuit design and simulations.
Preface xv
Part I Electrical Energy and Power
1(62)
Principles of Electrical Power
3(60)
Introduction
3(1)
Electrical Power and Energy
4(16)
Average Values and Harmonics
6(3)
Power Absorbed in DC Circuits
9(4)
Average Power
13(3)
Root-Mean-Square Values
16(4)
Power Computations
20(35)
Sinusoidal Circuits
20(13)
Nonlinear Circuits with Sinusoidal Sources
33(16)
Linear Circuits with Nonsinusoidal Sources
49(6)
Chapter Summary
55(1)
The MATLAB Toolbox
56(3)
AVG
56(1)
RMS
56(1)
Fours
57(1)
Sinpow
57(1)
Nonsin
58(1)
Problems
59(4)
Part II Rectification
63(120)
Diode Rectifier Circuits
65(78)
Introduction
65(1)
Rectification
66(50)
Diodes
66(1)
Half-Wave Rectifier with Resistive Load
67(9)
Full-Wave Rectifier with Resistive Load
76(4)
HW Rectifier with R-L Load
80(10)
Full-Wave Rectifier with R-L Load
90(3)
HW Battery Charger with Series Resistance
93(7)
HW Battery Charger with Series R-L Impedance
100(7)
FW Battery Charger with Series R-L Impedance
107(9)
Rectifier Circuits with Load Capacitance
116(22)
HW Rectifier with R-C Load
116(9)
FW Rectifier with R-C Load
125(4)
Full-Wave Rectifier with L-C Filter
129(9)
Chapter Summary
138(1)
The MATLAB Toolbox
138(3)
HWR
138(1)
FWR
138(1)
HWRL
139(1)
FWRL
139(1)
HWRV
139(1)
FWRV
139(1)
HWRLV
140(1)
FWRLV
140(1)
HWRC
140(1)
FWRC
140(1)
Problems
141(2)
Phase-Controlled Rectifier Circuits
143(40)
Introduction
143(1)
Phase-Controlled Rectification
144(19)
HW Phased-Controlled Rectifier with Resistive Load
145(6)
FW Phase-Controlled Rectifier with Resistive Load
151(4)
HW Phase-Controlled Rectifier with R-L Load
155(3)
FW Phase-Controlled Rectifier with R-L Load
158(5)
Phase-Controlled Chargers
163(15)
HW Phase-Controlled Charger with Series Resistance
163(4)
FW Phase-Controlled Charger with Series Resistance
167(3)
HW Phase-Controlled Charger with Series R-L Impedance
170(3)
FW Phase-Controlled Charger with Series R-L Impedance
173(5)
Chapter Summary
178(1)
The MATLAB Toolbox
178(3)
HWCR
178(1)
FWCR
179(1)
HWCRL
179(1)
FWCRL
179(1)
HWCRV
179(1)
FWCRV
180(1)
HWCRLV
180(1)
FWCRLV
180(1)
Problems
181(2)
Part III DC-DC Converter Technology
183(192)
Introduction to DC-DC Converters: The Buck Converter
185(44)
Introduction
185(1)
Efficiency and Regulation
186(4)
Linear Regulators
187(1)
Pulse-Width Modulation
187(3)
The Buck Converter Circuit
190(1)
DC-DC Converter Analysis
191(4)
Inductor Current
191(2)
Inductance
193(2)
The Continuous Conduction Mode
195(10)
CCM Inductance
195(1)
CCM Duty Ratio
196(3)
The Lambda Ratio
199(2)
CCM Capacitance
201(4)
The Discontinuous Conduction Mode
205(9)
DCM Inductor Current
205(1)
DCM Duty Ratio
206(1)
DCM Output Voltage
207(2)
DCM Capacitance
209(5)
Practical Buck Converters
214(10)
CCM and DCM Duty Ratios
214(2)
Switching-Device Power Dissipation
216(1)
Efficiency
217(7)
Chapter Summary
224(1)
The MATLAB Toolbox
225(1)
LBuck
225(1)
CBuck
226(1)
Problems
226(3)
General Theory of Two-Level DC-DC Converters: Boost and Buck/Boost Converters
229(42)
Introduction
229(1)
General Theory of CCM Converters
230(15)
Generalized CCM Duty Ratio
230(4)
CCM Capacitance
234(4)
The CCM Boost Converter
238(4)
The CCM Buck/Boost Converter
242(3)
General Theory of DCM Converters
245(15)
General DCM Duty Ratio
245(2)
Generalized Lambda Ratio and DCM Inductance
247(1)
Generalized DCM Duty Ratio as a Function of the Lambda Ratio
248(1)
Generalized DCM Capacitance
249(6)
The DCM Boost Converter
255(2)
The DCM Buck/Boost Converter
257(3)
H-Bridge DC-DC Converters
260(7)
The Watkins-Johnson Converter
260(1)
The Inverse Watkins-Johnson Converter
261(3)
The Bridge Converter
264(1)
The Current-Fed Bridge Converter
265(2)
Chapter Summary
267(1)
The MATLAB Toolbox
268(1)
LBoost
268(1)
CBoost
268(1)
LBKBST
268(1)
CBKBST
269(1)
Problems
269(2)
Dynamic Modeling and Simulation of DC-DC Converters
271(44)
Introduction
271(1)
State-Space Modeling of Linear Systems
272(2)
State-Space Modeling of Linear Circuits
274(3)
Simulation of State-Space Models in MATLAB
277(5)
State-Space Modeling of DC-DC Converters
282(5)
State-Space Model of the Buck Converter
282(2)
State-Space Model of the Boost Converter
284(1)
State-Space Model of the Buck/Boost Converter
285(2)
Simulation of DC-DC Converters in MATLAB
287(24)
Normalization with Respect to Frequency
287(5)
Normalized DC-DC Converter Models
292(1)
Simulation of CCM Converters
293(9)
Simulation of DCM Converters
302(9)
Chapter Summary
311(1)
The MATLAB Toolbox
312(1)
Buck
312(1)
Boost
312(1)
Bkboost
312(1)
LCCM
312(1)
RK4
313(1)
Problems
313(2)
Inverters: Converting DC to AC
315(44)
Introduction
315(1)
AC Transformers
316(7)
The Ideal Transformer
316(4)
Physical Transformer Model
320(3)
The Inverter Circuit
323(9)
Square-Wave Inverter
324(1)
Square-Wave Inverter with Inductive Load
325(7)
Inverter Switching Methods
332(2)
Simulating Inverters in MATLAB
334(21)
Inverters with Transformers
337(6)
Load Voltage Harmonics
343(2)
Filtering the Output
345(10)
PWM Inverter
355(2)
Bipolar Switching
355(2)
Chapter Summary
357(1)
The MATLAB Toolbox
357(1)
Inverter
357(1)
Pwminvr
357(1)
Problems
357(2)
Thermal Management
359(16)
Introduction
359(1)
Thermal Model of Electronic Devices
360(5)
One-Dimensional Heat Flow
360(5)
Maximum Power Ratings of Semiconductor Devices
365(1)
Extruded Heatsinks
366(2)
Multiple Devices on a Common Heatsink
368(4)
Chapter Summary
372(1)
The MATLAB Toolbox
373(1)
RSA
373(1)
RNSA
373(1)
Problems
373(2)
About the CD-ROM 375(2)
Index 377