http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
Front Cover -- Contents -- Preface -- Chapter 1: Power Supply Circuit Fundamentals -- 1.1 Introduction -- 1.1.1 Why Do We Study Power Electronics? -- 1.1.2 Positioning of Power Supplies -- 1.1.3 Power Supply Circuit Basics -- 1.1.4 Future Direction -- 1.2 Basics -- 1.2.1 Inductor Volt-Second (or Magnetic Flux Linkage) Balance and Capacitor Charge Balance in a Buck Converter -- 1.2.2 Transformer-Equivalent Circuit -- 1.2.3 General Expression for the Power Factor -- 1.2.4 Switching Loss -- References -- Chapter 2: Buck Converter for Low-Voltage Application -- 2.1 Introduction -- 2.2 Operation and Circuit Analysis -- 2.2.1 Operation of a Buck Converter -- 2.2.2 Circuit Analysis of a Buck Converter -- 2.3 Closed-Loop Operation -- 2.3.1 Voltage Regulator -- 2.3.2 Design Consideration of Feedback Circuit -- References -- Chapter 3: Isolated DC-DC Converters -- 3.1 Introduction -- 3.2 Flyback Converter -- 3.3 Forward Converter -- 3.3.1 Single-Switch Forward Converter -- 3.3.2 Two-Switch Forward Converter -- 3.4 Push-Pull Converter -- 3.5 Half-Bridge Converter -- 3.6 Full-Bridge Converter -- 3.6.1 PWM-Controlled Full-Bridge Converter -- 3.6.2 Phase-Shift-Controlled Full-Bridge Converter -- 3.6.3 Full-Bridge Converter with a Current-Doubler Rectifier -- 3.6.4 Full-Bridge Converter with Zero Voltage Switching -- Chapter 4: Modeling and Analysis of Switching Converters -- 4.1 Introduction -- 4.2 Switching Converter Analysis Using the Averaged Device Model -- 4.2.1 Kirchhoff's Law for Averaged Voltage and Current -- 4.2.2 The Equivalent Device Model -- 4.2.3 Analysis Procedure Using the Averaged Device Model -- 4.3 Buck Converter in Continuous Conduction Mode -- 4.3.1 Derivation of Waveforms of Currents and Voltages -- 4.3.2 Derivation of the Averaged Device Model -- 4.3.3 Steady-State Characteristics -- 4.3.4 Small-Signal AC Analysis.
4.4 Buck Converter in Discontinuous Conduction Mode -- 4.4.1 Derivation of Waveforms of Currents and Voltages -- 4.4.2 Derivation of the Averaged Device Model -- 4.4.3 Steady-State Characteristics -- 4.4.4 Small-Signal AC Characteristics -- 4.5 Summary of Steady-State and Dynamic Characteristics of Basic Converters -- Chapter 5: Control Schemes of Switching Converters -- 5.1 Introduction -- 5.2 Voltage-Mode PWM Control -- 5.2.1 Transfer Function of an Error Amplifier -- 5.2.2 Transfer Function of a PWM Generator -- 5.3 Self-Oscillating Hysteretic PWM Control -- 5.3.1 Transfer Function of a Hysteretic PWM Generator -- 5.3.2 Constant-Frequency Operation of a Hysteretic PWM Generator -- 5.4 Current-Mode Control -- 5.4.1 Transfer Function of Current-Mode Control -- 5.4.2 Constant-Frequency Operation of a Current-Mode PWM Generator -- Chapter 6: Passive Components -- 6.1 Inductors and Transformers -- 6.1.1 Inductors -- 6.1.2 Transformers -- 6.1.3 Materials Used in Inductors and Transformers -- 6.1.4 Design Example -- 6.2 Capacitors -- 6.2.1 The Position of a Capacitor in Electronic Components -- 6.2.2 Brief Overview of Various Capacitors -- 6.2.3 Characteristics and Applications of Various Capacitors -- 6.2.4 Main Roles of a Capacitor in a Power Distribution Network -- Chapter 7: On-Chip Voltage Converters -- 7.1 Introduction -- 7.2 On-Chip Voltage Conversion -- 7.3 Voltage Reference Circuits -- 7.4 Voltage Down-Converters -- 7.5 Voltage Up-Converters -- References -- Chapter 8: Applications of DC-DC/AC-DC Switching Converters -- 8.1 Noninverted Buck-Boost DC-DC Converter with Dual Delta-Sigma Modulators -- 8.1.1 Introduction -- 8.1.2 Full-Bridge Configuration Buck-Boost Power Source -- 8.1.3 V Modulated Mixed-Control Method -- 8.1.4 Dual V Modulated Control Method -- 8.1.5 Dual V Buck-Boost Converter (Simulation).
8.1.6 Confirmation Experiments (Duty Ratio V Control Method) -- 8.2 Nonisolated AC-DC Direct Converters -- 8.2.1 Introduction -- 8.2.2 Direct Buck-Boost AC-DC Converter with an H Bridge -- 8.2.3 Inverted Direct AC-DC Converter -- 8.3 Power Factor Correction Circuit for a Direct AC-DC Converter -- 8.3.1 New PFC Circuit in Boundary Conduction Mode -- 8.3.2 New PFC Circuit in Continuous Conduction Mode -- 8.4 Conclusions -- References -- Chapter 9: Single-Inductor Multi-Output DC-DC Converter -- 9.1 Introduction -- 9.1.1 Background and Motivation -- 9.1.2 Organization -- 9.2 Basics of a DC-DC Converter -- 9.2.1 Basic Topologies -- 9.2.2 Operation of a DC-DC Converter -- 9.3 What Is a SIMO DC-DC Converter? -- 9.3.1 Basics of a SIMO Converter -- 9.3.2 Topologies of a SIMO DC-DC Converter -- 9.3.3 Freewheel Technique for PCCM -- 9.4 Control Circuit -- 9.4.1 Voltage-Mode Control -- 9.4.2 Current-Mode Control -- 9.4.3 Ripple Control and Hysteresis Control -- 9.5 Conclusion -- References -- Chapter 10: A Small, Low-Power Boost Regulator Optimized for Energy-Harvesting Applications -- 10.1 Introduction -- 10.2 Proposed Circuit Operation -- 10.2.1 Ideal Boost Regulator Operation -- 10.2.2 Design Methodology -- 10.2.3 Block Diagram -- 10.2.4 Start-Up Charge Pump -- 10.2.5 Start-Up Oscillator and Driver -- 10.2.6 Voltage Reference -- 10.2.7 Hysteretic Control -- 10.2.8 Ideal Components -- 10.3 Simulation Results -- 10.3.1 Simulation Schematic -- 10.3.2 Start-Up Results -- 10.3.3 Steady-State Operation -- 10.3.4 Calculation and Simulation Comparison -- 10.3.5 Efficiency -- 10.4 Test Chip -- 10.4.1 Chip Photomicrograph -- 10.4.2 Chip Packaging -- 10.4.3 Bench Results -- 10.4.4 Bench and Simulation Comparison -- 10.5 Conclusion -- References -- Chapter 11: Wireless Power Delivery -- 11.1 Introduction -- 11.2 Literature on Wireless Power Delivery.
11.3 Wireless Power Delivery for 3D System Integration -- 11.4 Wireless Power Delivery for Noncontact Wafer-Level Testing -- 11.5 Efficiency Improvement Using Thin-Film Magnetic Material -- References -- Chapter 12: High-Power GaN HEMT for Cellular Base Stations -- 12.1 Introduction -- 12.2 Basic Characteristics of GaN HEMTs -- 12.2.1 Material Properties -- 12.2.2 Comparison Si, GaAs, and GaN for DC and RF Characteristics -- 12.3 RF Operation and Load Line -- 12.3.1 Load Impedance and Operation Voltage -- 12.3.2 Load Impedance and Cds -- 12.4 High-Efficiency Operation -- 12.4.1 Class E Operation -- 12.4.2 Class F Operation -- 12.5 Doherty Amplifier -- 12.5.1 Principle of the Doherty Amplifier -- 12.5.2 Load Pull Theory for the Doherty Design -- 12.5.3 Main Amplifier Design -- 12.5.4 Peak Amplifier Design -- 12.5.5 Total Doherty Design -- 12.5.6 Doherty Variations -- 12.6 Other Efficiency Enhancement Techniques -- References -- Chapter 13: Understanding the Efficiency of Switched Capacitor Power Supply Circuits -- 13.1 Basic Study of Switched-Capacitor Power Electronics -- 13.2 Capacitor Size, Switching Frequency, Load Current, and Energy Loss -- 13.3 Parasitic Capacitance and Output Voltage -- 13.4 Dual Form of Theorem 2 Circuit: Two Inductors and a Switch -- 13.5 Efficient Capacitor-Charging Method -- 13.5.1 Problem 1 -- 13.5.2 Problem 2 -- 13.6 Analogy to Newton's Second Law of Motion -- 13.7 Digital CMOS Circuit Dynamic Power Dissipation -- 13.7.1 Dynamic Power Dissipation Formula -- 13.7.2 Adiabatic Digital CMOS Circuit -- 13.8 Switched-Capacitor ADC -- 13.9 Capacitor Charge Transfer through an Inductor -- 13.10 Efficiency of Switched-Capacitor and Charge Pump Circuits -- 13.10.1 Dickson Charge Pump Circuit at Start-Up Time -- 13.10.2 Steady-State Analysis of Dickson Charge Pump Circuit -- 13.11 Conclusions -- References -- Back Cover.
edited by Haruo Kobayashi, Takashi Nabeshima.
Includes bibliographical references at the end of each chapters.
Boca Raton, Florida : Pan Stanford Publishing, ©2016