Zhanyou Sha, Xiaojun Wang, Yanpeng Wang, Hongtao Ma

Optimal Design of Switching Power Supply

• Gebundenes Buch

Produktbeschreibung

A contemporary evaluation of switching power design methods with real world applications

- Written by a leading author renowned in his field
- Focuses on switching power supply design, manufacture and debugging
- Switching power supplies have relevance for contemporary applications including mobile phone chargers, laptops and PCs
- Based on the authors successful "Switching Power Optimized Design 2nd Edition" (in Chinese)
- Highly illustrated with design examples of real world applications

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Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.

Produktdetails

• Verlag: Wiley & Sons
• 1. Auflage
• Seitenzahl: 432
• Erscheinungstermin: 15. September 2015
• Englisch
• Abmessung: 246mm x 174mm x 30mm
• Gewicht: 884g
• ISBN-13: 9781118790908
• ISBN-10: 1118790901
• Artikelnr.: 42779788

Autorenporträt

Zhanyou Sha, Xiaojun Wang, Yanpeng Wang, and Hongtao Ma, Hebei University of Science and Technology, China.

Inhaltsangabe

Preface xiii Introduction xv 1 Overview on Switching-Mode Power Supply
(SMPS) 1 1.1 Classification of Integrated Regulated Power Supply 1 1.2
Characteristics of SMPS 5 1.3 New Development Trend of SMPS 6 1.4 Basic
Principles of SMPS 13 1.5 Control Mode Type of SMPS 16 1.6 Working Mode of
SMPS 20 1.7 Feedback Type of SMPS 22 1.8 Load Characteristics of SMPS 27 2
New Technology and Its Application of SMPS 31 2.1 Single-Chip Integration
of SMPS 31 2.2 Computer-Based SMPS Design 33 2.3 Internal Protection
Circuit of SMPS 39 2.4 Synchronous Rectification (SR) Technology 41 2.5
Active Clamp Technology 43 2.6 Magnetic Amplifier Regulator Technology 45
2.7 Programmable Voltage Regulator Technology 49 2.8 Digital Power Supply
System 56 2.9 Energy-Saving and Environment-Friendly Technology of SMPS 66
3 Topologies of the DC/DC Converter 69 3.1 Topologies of the DC/DC
Converter 69 3.2 Basic Principle of Buck Converter 75 3.3 Basic Principle
of Boost Converter 78 3.4 Basic Principle of Buck-Boost Converter 79 3.5
Basic Principle of Charge Pump Converter 80 3.6 Basic Principle of SEPIC 81
3.7 Basic Principle of Flyback Converter 82 3.8 Basic Principle of Forward
Converter 86 3.9 Basic Principle of Push-Pull Converter 87 3.10 Basic
Principle of Half/Full Bridge Converter 89 3.11 Basic Principle of Soft
Switching Converter 90 3.12 Basic Principle of Half-Bridge LLC Resonant
Converter 93 3.13 Basic Principle of the 2-Switch Forward Converter 97 4
Method for Selecting Key Peripheral Components of SMPS 99 4.1 Selection
Method for Fixed Resistor 99 4.2 Selection Method for Capacitors 105 4.3
Inductor Characteristics and Selection Method for Magnetic Beads 111 4.4
Selection Method for EMI Filter 116 4.5 Selection Method for Input Bridge
Rectifier 128 4.6 Selection Method for Output Rectifier 130 4.7 Selection
Method for Transient Voltage Suppressor (TVS) 137 4.8 Selection Method for
Power Switching Tube 142 4.9 Selection Method for Optical Coupler 149 4.10
Selection Method for Adjustable Precision Shunt Regulator 152 4.11
Selection Method for SMPS Protection Elements 159 5 Power Factor Correction
Circuit Design of SMPS 167 5.1 Brief Introduction to Power Factor
Correction (PFC) 167 5.2 Basic Principle of Passive PFC Circuit 170 5.3
Design Examples of Passive PFC Circuit 175 5.4 Basic Principle of Active
PFC Circuit 177 5.5 Design Examples of Active PFC Circuit 184 5.6 Principle
and Application of High-Power PFC 188 5.7 Measures to Suppress PFC
Electromagnetic Interference 197 5.8 PFC Configuration Scheme 200 6 Design
of High-Frequency Transformer 205 6.1 Selection Method for Magnetic Cores
by the Empirical Formula or Output Power Table 205 6.2 Waveform Parameters
of the High-Frequency Transformer Circuit 211 6.3 Formula Derivation of
Selecting High-Frequency Transformer Magnetic Core Based on AP Method 212
6.4 Design of Flyback High-Frequency Transformer 217 6.5 Design of Forward
High-Frequency Transformer 225 6.6 Loss of High-Frequency Transformer 227 7
Examples of SMPS Optimization Design 231 7.1 Multioutput SMPS Design 231
7.2 Methods to Improve the Cross-Load Regulation of Multioutput SMPS 236
7.3 Design of PC SMPS with Magnetic Amplifier 238 7.4 Design of Synchronous
Rectification DC/DC Converter 241 7.5 Design of SMPS for Peak-Power-Output
Audio Power Amplifier 243 7.6 Design of Industrial Control Power Supply
Based on Voltage-Doubling Rectifier 246 7.7 Design of Industrial Control
Power Supply Based on Suspension High-Voltage Constant Current Source 248
7.8 Design of StackFETTM Technology-Based Micro-SMPS 250 7.9 Design of
Power Supply for the Digital TV Set-Top Box 252 7.10 Design of Mobile Phone
Charger with USB Interface 254 8 Key Design Points of SMPS 257 8.1 SMPS
Design Requirements 257 8.2 Design of High-Efficiency SMPS 260 8.3 Methods
of Reducing No-Load and Standby Power Consumption of SMPS 265 8.4 Stability
Design of Optocoupler Feedback Control Loop 274 8.5 SMPS Layout and Wiring
282 8.6 Design of Constant Voltage/Current SMPS 288 8.7 Design of Precision
Constant Voltage/Current SMPS 292 8.8 Design of Remote Turn-Off Circuit for
SMPS 297 8.9 Typical Application and Printed Circuit Design of New
Single-Chip SMPS 299 8.10 Electromagnetic Interference Waveform Analysis
and Safety Code Design of SMPS 307 8.11 Radiator Design of Single-Chip SMPS
313 8.12 Radiator Design of Power Switching Tube (MOSFET) 321 8.13 Common
Troubleshooting Methods of SMPS 327 9 SMPS Testing Technology 329 9.1
Parameter Testing of SMPS 329 9.2 Performance Testing of SMPS 333 9.3 SMPS
Measurement Skills 336 9.4 Accurate Measurement Method of Duty Ratio 343
9.5 Method to Detect the Magnetic Saturation of High-Frequency Transformer
with Oscilloscope 345 9.6 Digital Online Current/Resistance Meter 348 9.7
Electromagnetic Compatibility Measurement of SMPS 354 9.8 Waveform Test and
Analysis of SMPS 359 10 Protection and Monitoring Circuit Design of SMPS
367 10.1 Design of Drain Clamp Protection Circuit 367 10.2 Overvoltage
Protection Circuit Constituted by Discrete Components 371 10.3 Application
of Integrated Overvoltage Protector 377 10.4 Design of Undervoltage
Protection Circuit 381 10.5 Design of Overcurrent and Overpower Protection
Circuit 384 10.6 Design of Soft-Start Circuit 389 10.7 Mains Voltage
Monitor 392 10.8 Transient Interference and Audio Noise Suppression
Technology of SMPS 396 10.9 Design of Overheating Protection Component and
Cooling Control System 400 References 407 Index 409