Impedance source power electronic converters / authored by Yushan Liu, Texas A&M University at Qatar, Qatar Foundation, Doha, Qatar; Haitham Abu-Rub, Texas A&M University at Qatar, Qatar Foundation, Doha, Qatar; Baoming Ge, Texas A&M University, College Station, USA; Frede Blaabjerg, Aalborg University, Aalborg East, Denmark; Omar Ellabban, Texas A&M University at Qatar, Qatar Foundation, Doha, Qatar, Helwan University, Cairo, Egypt; Poh Chiang Loh, Aalborg University, Aalborg East, Denmark 0002732136.

Format:

Book

Author/Creator:

Liu, Yushan, 1986- author.

Series:

Wiley - IEEE

Language:

English

Subjects (All):

Technology.

Physical Description:

1 online resource (423 p.)

Edition:

First edition.

Distribution:

[Piscataqay, New Jersey] : IEEE Xplore, [2016]

Place of Publication:

Chichester, West Sussex, United Kingdom : John Wiley and Sons, Inc., 2016.

Language Note:

English

Summary:

Impedance Source Power Electronic Converters brings together state of the art knowledge and cutting edge techniques in various stages of research related to the ever more popular impedance source converters/inverters. Significant research efforts are underway to develop commercially viable and technically feasible, efficient and reliable power converters for renewable energy, electric transportation and for various industrial applications. This book provides a detailed understanding of the concepts, designs, controls, and application demonstrations of the impedance source converters/inverters. Key features: . Comprehensive analysis of the impedance source converter/inverter topologies, including typical topologies and derived topologies.. Fully explains the design and control techniques of impedance source converters/inverters, including hardware design and control parameter design for corresponding control methods.. Presents the latest power conversion solutions that aim to advance the role of power electronics into industries and sustainable energy conversion systems.. Compares impedance source converter/inverter applications in renewable energy power generation and electric vehicles as well as different industrial applications.. Provides an overview of existing challenges, solutions and future trends.. Supported by calculation examples, simulation models and results. Highly accessible, this is an invaluable resource for researchers, postgraduate/graduate students studying power electronics and its application in industry and renewable energy conversion as well as practising R&D engineers. Readers will be able to apply the presented material for the future design of the next generation of efficient power electronic converters/inverters.

Contents:

1. Background and Current Status

1.1 General Introduction of Electrical Power Generation

1.1.1 Energy Systems

1.1.2 Existing Power Converter Topologies

1.2 Z-Source Converter as Single-Stage Power Conversion System

1.3 Background and Advantages Compared to Existing Technology

1.4 Classification and Current Status

1.5 Future Trends

1.6 Contents Overview

2. Voltage-Fed Z-Source/Quasi-Z-Source Inverters

2.1 Topologies of Voltage-Fed Z-Source/Quasi-Z-Source Inverters

2.2 Modeling of Voltage-Fed qZSI

2.2.1 Steady-State Model

2.2.2 Dynamic Model

2.3 Simulation Results

2.3.1 Simulation of qZSI Modeling

2.3.2 Circuit Simulation Results of Control System

2.4 Conclusion

3. Current-Fed Z-Source Inverter

3.1 Introduction

3.2 Topology Modification

3.3 Operation Principles

3.3.1 Current-Fed Z-Source Inverter

3.3.2 Current-Fed Quasi-Z-Source Inverter

3.4 Modulation

3.5 Modeling and Control

3.6 Passive Components Design Guidelines

3.7 Discontinuous Operation Modes

3.8 Current-Fed Z-source Inverter/ Current-Fed quasi-Z-source Inverter Applications

3.9 Summary

4. Modulation Methods and Comparison

4.1 Sinewave Pulsewidth Modulations

4.1.1 Simple Boost Control

4.1.2 Maximum Boost Control

4.1.3 Maximum Constant Boost Control

4.2 Space Vector Modulations

4.2.1 Traditional SVM

4.2.2 SVMs for ZSI/qZSI

4.3 Pulsewidth Amplitude Modulation

4.4 Comparison of All Modulation Methods

4.4.1 Performance Analysis

4.4.2 Simulation and Experimental Results

4.5 Conclusion

5. Control of Shoot-Through Duty Cycle: An Overview

5.1 Summary of Closed-Loop Control Methods

5.2 Single-Loop Methods

5.3 Double-Loop Methods

5.4 Conventional Regulators and Advanced Control Methods

6. Z-Source Inverter: Topology Improvements Review

6.1 Introduction

6.2 Basic Topology Improvements

6.2.1 Bidirectional Power Flow

6.2.2 High-Performance Operation

6.2.3 Low Inrush Current.

6.2.4 Soft-Switching

6.2.5 Neutral Point

6.2.6 Reduced Leakage Current

6.2.7 Joint Earthing

6.2.8 Continuous Input Current

6.2.9 Distributed Z-network

6.2.10 Embedded Source

6.3 Extended Boost Topologies

6.3.1 Switched Inductor Z-Source Inverter

6.3.2 Tapped-Inductor Z-Source Inverter

6.3.3 Cascaded Quasi-Z-Source Inverter

6.3.4 Transformer-Based Z-Source Inverter

6.3.5 High Frequency Transformer Isolated Z-Source Inverter

6.4 L-Z-Source Inverter

6.5 Changing the ZSI Topology Arrangement

6.6 Conclusion

7. Typical Transformer-Based Z-Source/Quasi-Z Source Inverters

7.1 Fundamental of Trans-ZSI

7.1.1 Configuration of Current-Fed and Voltage-Fed Tran-ZSI

7.1.2 Operating Principle of Voltage-Fed Tran-ZSI

7.1.3 Steady-State Model

7.1.4 Dynamic Model

7.1.5 Simulation Results

7.2 LCCT-ZSI/qZSI

7.2.1 Configuration and Operation of LCCT-ZSI

7.2.2 Configuration and Operation of LCCT-qZSI

7.2.3 Simulation Results

7.3 Conclusion

8. Z-Source/Quasi-Z-Source AC-DC Rectifiers

8.1 Topologies of Voltage-Fed Z-Source/Quasi-Z-Source Rectifiers

8.2 Operating Principle

8.3 Dynamic Modeling

8.3.1 DC-Side Dynamic Model of qZSR

8.3.2 AC-Side Dynamic Model of Rectifier Bridge

8.4 Simulation Results

8.5 Conclusion

9. Z-Source DC-DC Converters

9.1 Topologies

9.2 Comparison

9.3 Example Simulation Model and Results

10. Z-Source Matrix Converters

10.1 Introduction

10.2 Z-Source Indirect Matrix Converter (all-silicon solution)

10.2.1 Different Topology Configurations

10.2.2 Operating Principle and Equivalent Circuits

10.2.3 Parameter Design of the QZS-Network

10.2.4 QZSIMC (all-silicon solution) Applications

10.3 Z-Source Indirect Matrix Converter (not all-silicon solution)

10.3.1 Topology Different Configurations

10.3.2 Operating Principle and Equivalent Circuits

10.3.3 Parameter Design of the QZS Network

10.3.4 ZS/QZSIMC (not all-silicon solution) Applications.

10.4 Z-Source Direct Matrix Converter

10.4.1 Alternative Topology Configurations

10.4.2 Operating Principle and Equivalent Circuits

10.4.3 Shoot-Through Boost Control Method

10.4.4 Applications of the QZSDMC

10.5 Summary

11. Energy Stored Z-Source/Quasi-Z-Source Inverters

11.1 Energy Stored Z-Source/Quasi-Z Source Inverters

11.1.1 Modeling of qZSI with Battery

11.1.2 Controller Design

11.2 Example Simulations

11.2.1 Case 1: SOCmin<SOC<SOCmax

11.2.2 Case 2: Avoidance of Battery Overcharging

11.3 Conclusion

12. Z-Source Multilevel Inverters

12.1 Z-Source NPC Inverter

12.1.1 Configuration

12.1.2 Operating Principles

12.1.3 Modulation Scheme

12.2 Z-Source/Quasi-Z Source Cascade Multilevel Inverter

12.2.1 Configuration

12.2.2 Operating Principles

12.2.3 Modulation Scheme

12.2.4 System-Level Modeling and Control

12.2.5 Simulation Results

12.3 Conclusion

13. Design of Z-Source/Quasi-Z-Source inverter

13.1 Z-Source Network Parameters

13.1.1 Inductance and Capacitance of Three-Phase qZSI

13.1.2 Inductance and Capacitance of Single-Phase qZSI

13.2 Loss Calculation Method

13.2.1 H-bridge Device Power Loss

13.2.2 qZS Diode Power Loss

13.2.3 qZS Inductor Power Loss

13.2.4 qZS Capacitor Power Loss

13.3 Voltage and Current Stress

13.4 Coupled Inductor Design

13.5 Efficiency, Cost, and Volume Comparison to Conventional Inverter

13.5.1 Efficiency Comparison

13.5.2 Cost and Volume Comparison

13.6 Conclusion

14. Applications in Photovoltaic Power Systems

14.1 Photovoltaic Power Characteristics

14.2 Typical Configurations of Single-Phase and Three-Phase Systems

14.3 Parameter Design Method

14.4 MPPT Control and System Control Methods

14.5 Examples Demonstration

14.5.1 Single-Phase qZS PV System and Simulation Results

14.5.2 Three-Phase qZS PV Power System and Simulation Results

14.5.3 1-MW/11-kV qZS CMI Based PV Power System and Simulation Results.

14.6 Conclusion

15. Applications in Wind Power

15.1 Wind Power Characteristics

15.2 Typical Configurations

15.3 Parameters Design

15.4 MPPT Control and System Control Methods

15.5 Simulation Results of a qZS Wind Power System

15.6 Conclusion

16. Z-Source Inverter for Motor Drives Application: A Review

16.1 Introduction

16.2 Z-Source Inverter Feeding a Permanent Magnet Brushless DC Motor

16.3 Z-Source Inverter Feeding a Switched Reluctance Motor

16.4 Z-Source Inverter Feeding a Permanent Magnet Synchronous Motor

16.5 Z-Source Inverter Feeding an Induction Motor

16.5.1 Scalar Control (V/F) Technique for ZSI-IM drive system

16.5.2 Field Oriented Control Technique for ZSI-IM Drive System

16.5.3 Direct Torque Control (DTC) Technique for ZSI-IM Drive System

16.5.4 Predictive Torque Control for ZSI-IM Drive System

16.6 Multiphase Z-source Inverter Motor Drive System

16.7 Two-Phase Motor Drive System with Z-Source Inverter

16.8 Single-Phase Induction Motor Drive System Using Z-Source Inverter

16.9 Z-Source Inverter for Vehicular Applications

16.10 Conclusion

17. Impedance Source Multi-Leg Inverters

17.1 Impedance Source Four-Leg Inverter

17.1.1 Introduction

17.1.2 Unbalanced Load Analysis Based on Fortescue components

17.1.3 Effects of Unbalanced Load Condition

17.1.4 Inverter Topologies for Unbalanced Loads

17.1.5 Z-Source Four-Leg Inverter

17.1.6 Switching Schemes for Three-Phase Four-Leg Inverter

17.1.7 Buck/Boost Conversion Modes Analysis

17.2 Impedance Source Five-Leg (Five-Phase) Inverter

17.2.1 Five-Phase VSI Model

17.2.2 Space Vector PWM for a Five-Phase Standard VSI

17.2.3 Space Vector PWM for Five-Phase qZSI

17.2.4 Discontinuous Space Vector PWM for Five-Phase qZSI

17.3 Conclusion

18. Model Predictive Control of Impedance Source Inverters

18.1 Introduction

18.2 Overview of Model Predictive Control

18.3 Mathematical Model of the Z-Source Inverters.

18.3.1 Overview of Topologies

18.3.2 Three-Phase Three-Leg Inverter Model

18.3.3 Three-Phase Four-Leg Inverter Model

18.3.4 Multi-Phase Inverter Model

18.4 Model Predictive Control of the Z-Source Three-Phase Three-leg Inverter

18.5 Model Predictive Control of the Z-Source Three-Phase Four-leg Inverter

18.5.1 Discrete-Time Model of the Output Current for Four-Leg Inverter

18.5.2 Control Algorithm

18.6 Model Predictive Control of the Z-Source Five-Phase Inverter

18.6.1 Discrete-Time Model of the Five-Phase Load

18.6.2 Cost Function for the Load Current

18.6.3 Control Algorithm

18.7 Performance Investigation

18.8 Conclusion

19. Grid Integration of Quasi-Z-Source Based PV Multilevel Inverter

19.1 Introduction

19.2 Topology and Modeling

19.3 Grid Synchronization

19.4 Power Flow Control

19.4.1 Proportional Integral Controller

19.4.2 Model Predictive Control

19.5 Low Voltage Ride-Through Capability

19.6 Islanding Protection

19.6.1 Active Frequency Drift (AFD)

19.6.2 Sandia Frequency Shift (SFS)

19.6.3 Slip-Mode Frequency Shift (SMS)

19.6.4 Simulation Results

19.7 Conclusion

20. Future Trends

20.1 General Expectation

20.1.1 Volume and Size Reduction by Wide Band-Gap Devices

20.1.2 Parameters Minimization for Single-Phase qZS Inverter

20.1.3 Novel Control Methods

20.1.4 Future Applications

20.2 Illustration of Using Wide Band-Gap Devices

20.2.1 Impact on Z-Source Network

20.2.2 Analysis and Evaluation of SiC Devices Based qZSI

20.3 Conclusion.

Notes:

Description based upon print version of record.

Includes bibliographical references at the end of each chapters and index.

Description based on print version record.

ISBN:

9781119037118

1119037115

9781119037101

1119037107

9781119037088

1119037085

OCLC:

949669676