Power electronics and motor drive systems

Power Electronics and Motor Drive Systems is designed to aid electrical engineers, researchers, and students to analyze and address common problems in state-of-the-art power electronics technologies. Author Stefanos Manias supplies a detailed discussion of the theory of power electronics circuits an...

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Detalles Bibliográficos
Otros Autores:	Manias, Stefanos N., author (author)
Formato:	Libro electrónico
Idioma:	Inglés
Publicado:	London, [England] : Academic Press 2017.
Edición:	1st edition
Materias:	Power electronics. Electric motors > Power supply. Electric power supplies to apparatus > Design and construction.
Ver en Biblioteca Universitat Ramon Llull:	https://discovery.url.edu/permalink/34CSUC_URL/1im36ta/alma991009630169406719

Tabla de Contenidos:

Front Cover
Power Electronics and Motor Drive Systems
Power Electronics and Motor Drive SystemsStefanos N. ManiasSchool of Electrical and Computer Engineering National Technical ...
Copyright
Dedication
Contents
About the Author
Preface
Acknowledgments
List of Abbreviations
List of Symbols
1 - Power Electronics Technology
1.0 Introduction to Power Electronics Technology
1.1 Synthesis of a Required Voltage Waveform
1.2 Power Electronics Applications
1.3 Introduction to Power Semiconductor Devices
Bibliography and Publications
2 - Circuits With Switches and Diodes
2.0 Introduction
2.1 Circuit With DC Source and Resistive-Capacitive Load
2.2 Circuit With DC Source and Resistive-Inductive Load
2.3 Circuit With DC Source and Inductive Load
2.4 Circuit With DC Source and R-L-C Load
2.5 Circuit With AC Source and R-L-C Load
2.6 Power Diode
2.6.1 Power Diode Dynamic Switching Characteristics
Solution
2.7 Single-Phase Half-Wave Diode Rectifier With Resistive Load
2.8 Single-Phase Half-Wave Diode Rectifier With Resistive-Capacitive Load
2.9 Single-Phase Half-Wave Diode Rectifier With R-L Load
2.10 Single-Phase Half-Wave Diode Rectifier With R-L Load and Freewheeling Diode
2.11 Single-Phase Half-Wave Diode Rectifier With R-L-E Load
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Bibliography and Publications
3 - Thyristor and Single-Phase Half-Wave Controlled Rectifier
3.0 Introduction
3.1 Thyristor-Silicon Controlled Rectifier
3.1.1 Thyristor Dynamic Behavior
3.2 Single-Phase Half-Wave Thyristor Rectifier With Resistive Load
3.3 Single-Phase Half-Wave Thyristor Rectifier With Resistive-Inductive Load
3.4 Single-Phase Half-Wave Thyristor Rectifier With Inductive Load.
3.5 Single-Phase Half-Wave Thyristor Rectifier With R-L-E Load
3.6 Gate Drive Circuits for Thyristors
Solution
Solution
Solution
Solution
3.7 Simulation Examples Using the Power Simulation Software Program
Solution
Solution
Bibliography and Publications
4 - Diode Rectifiers
4.0 Introduction
4.1 Single-Phase Full-Wave Diode Rectifier With Center-Tapped Transformer
4.1.1 Evaluation of the Rectifier Input Current When the Output Current Is Pure DC of I¯o Value
4.2 Power Components Calculation and Power Quality for Nonlinear Loads
4.2.1 Power Components Calculation for Sinusoidal Voltage and Nonsinusoidal Input Current
4.2.2 Power Components Calculation When Both Voltage and Input Current Are Nonsinusoidal
4.2.3 Power Components Calculation for a Single-Phase Full-Wave Rectifier With Center-Tapped Transformer When the Output Current ...
4.3 Single-Phase Full-Bridge Diode Rectifier
4.4 Multiphase Half-Wave Diode Rectifiers
4.5 Three-Phase Bridge Diode Rectifier
4.5.1 Rectifier Analysis When the Output Current Is Pure DC of I¯o Value
4.5.2 Rectifier Analysis When the Output Current Is Discontinuous
4.6 Twelve-Pulse Diode Rectifier
4.7 Commutation Overlap Phenomenon of Diodes
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
4.8 Simulation Examples Using Power Simulation Software
Bibliography and Publications
5 - Thyristor-Controlled Rectifiers
5.0 Introduction
5.1 Single-Phase Full-Bridge Fully Controlled Thyristor Rectifier
5.1.1 Rectifier Analysis for Various Conditions of Operation
5.1.1.1 Operation With Discontinuous Output Current and Resistive Load
5.1.1.2 Operation With Discontinuous Output Current and R-L Load
Solution.
5.1.1.3 Operation With Continuous Output Current and R-L Load
Solution
5.1.1.4 Operation With Continuous Output Current and R-L-E Load
Solution
Solution
5.1.1.5 Operation With Pure DC Output Current of I¯o Value and R-L-E Load
Solution
Solution
5.1.1.6 Rectifier Operating in Inverter Mode
Solution
5.1.2 Linear Control of Rectifier Output Voltage
5.1.3 Cosine Control of Rectifier Output Voltage
5.2 Three-Phase Half-Wave Thyristor Rectifier
5.3 Three-Phase Bridge Fully Controlled Thyristor Rectifier
5.3.1 Operation With Pure DC Output Current of I¯o Value
5.3.2 Conduction Angle Overlap Phenomenon in the Three-Phase Half-Wave Thyristor Rectifier
5.3.3 Conduction Angle Overlap Phenomenon in the Three-Phase Bridge Fully Controlled Thyristor Rectifier
Solution
Solution
5.4 Asymmetric or Half-Controlled Rectifiers
Solution
Solution
5.5 Twelve-Pulse Fully Controlled Thyristor Rectifier
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Solution
Bibliography and Publications
6 - Inverters (DC-AC Converters)
6.0 Introduction
6.1 Single-Phase Half-Bridge Inverter
6.2 Single-Phase Full-Bridge Inverter
6.3 Output Voltage Control of Single-Phase Inverters
6.3.1 Single Pulse Width Modulation Technique for Quasi Square-Wave Single-Phase Full-Bridge Inverter
Solution
Solution
6.3.2 Single-Phase Two-Level Sinusoidal Pulse Width Modulation
Solution
Solution
Solution
Solution
Solution
6.4 Three-Phase Voltage Source Inverter
6.4.1 Operation of the Three-Phase Full-Bridge Inverter With 180° Switch Conduction
Solution
Solution
6.4.2 Operation of the Three-Phase Full-Bridge PWM Inverter With 120° Switch Conduction.
6.4.3 Operation of the Three-Phase Full-Bridge Inverter With Sinusoidal Pulse Width Modulation Control Technique
Solution
6.5 Multilevel Voltage Source Inverters
6.5.1 Neutral Point Diode Clamped Multilevel Inverters
6.5.2 Flying Capacitors Multilevel Inverters
Solution
6.5.3 Cascaded H-bridge Multilevel Inverters
6.5.4 Modular Multilevel Converter
6.5.5 Application of Sinusoidal Pulse Width Modulation Control Technique to Multilevel Inverters
6.5.5.1 Application of PD-SPWM Control Technique to Five-Level NPDCMI and FCMIs
6.5.5.2 Application of APOD-SPWM Control Technique to Five-Level DCMI and FCMI
6.5.5.3 PSC-SPWM Control Technique Applied to a Single-Phase Five-Level CHBMI
6.5.6 Comparison Between the Conventional and Multilevel Inverters
6.6 Current Source Inverters
6.6.1 Operation of a Three-Phase CSI Based on Quasi Square-Wave Output Line Currents
6.6.2 Operation of Single-Phase Forced Commutated Current Source Inverter
Mode I (Fig. 6.102(c))
Mode II (Fig. 6.102(d))
Mode III
6.7 Selected Harmonic Elimination Technique and SHE-PWM
6.7.1 SHE Technique Applied to the Inverter Output Voltage Without PWM
6.7.1.1 SHE-PWM Technique Applied to Two-Level Output Voltage
Solution
6.7.1.2 Selected Harmonic Elimination Applied to a Three-Level Output Voltage
6.7.1.3 SHE-PWM Technique Applied to a Three-Level Output Voltage
6.7.1.4 SHE-PWM Technique With 60° Modulation (Modified SHE Technique)
6.8 Other Pulse Width Modulation Techniques
6.8.1 Trapezoidal Pulse Width Modulation
6.8.2 Harmonic Injection Pulse Width Modulation
6.8.3 Multiple Pulses Pulse Width Modulation and Staircase Pulse Width Modulation
6.8.4 60°-Pulse Width Modulation
6.8.5 Hysteresis Band Current Controlled Pulse Width Modulation
6.8.6 Space Vector Pulse Width Modulation.
6.8.6.1 Derivation of Switching States and Respective Output Voltages of a Three-Phase Two-Level Inverter
6.8.6.2 Clarke and Park Reference Frame Transformations
6.8.6.3 Implementation Steps of the SVPWM Technique for a Three-Phase Two-Level Voltage Source Inverter
6.9 P-Q Control of a Three-Phase Voltage Source Inverter
Solution
6.9.1 P-Q Control Based on the Decoupling Control of d-q Current Components
Solution
Bibliography and Publications
7 - DC-DC Converters
7.0 Introduction
7.1 Step-Down or Buck Converter
7.1.1 Buck Converter Analysis When the Inductor Current Is Continuous
7.1.2 Buck Converter Analysis When the Inductor Current Is Discontinuous
Solution
Solution
Solution
Solution
7.2 Step-Up or Boost Converter
7.2.1 Boost Converter Analysis When the Inductor Current Is Continuous
7.2.2 Boost Converter Analysis When the Inductor Current Is Discontinuous
Solution
Solution
7.3 Buck-Boost (Step-Down-Step-Up) DC-DC Converter
Solution
7.4 Output Voltage Control of DC-DC Converters Using Pulse Width Modulation Technique
7.5 Switched-Mode Power Supplies
7.5.1 Flyback Converter Analysis
7.5.1.1 Flyback Converter Analysis When the Magnetizing Current Is Continuous
7.5.1.2 Flyback Converter Analysis When the Magnetizing Current Is Discontinuous
Solution
Solution
7.5.2 Waveforms and Transfer Functions of the DC-DC Converters of Fig. 7.17 Except Flyback
7.6 State-Space Representation of DC-DC Converters
7.6.1 Boost Converter State-Space Equations for Continuous Current Operation and Ideal Components
7.6.2 Buck Converter State-Space Equations for Continuous Current Operation and Ideal Components
7.7 Discrete State Equations of Boost and Buck Converters
7.8 Simplified Circuits and Approximate Transfer Functions of Boost and Buck Converters.
7.9 Boost and Buck Converter Simulation Using SPICE and MATLAB/Simulink Software.

Power electronics and motor drive systems

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