Author Biography xvPreface xviiAcknowledgments xixAcronyms xxiSymbols xxvIntroduction xxviiPart I Power Electronic Conversion 11 Power Electronics 31.1 Power Electronics Based Conversion 31.2 Power Electronic Switches 41.3 Types of Power Electronic Converters 61.4 Applications of Power Electronics in Power Engineering 61.5 Summary and Conclusion 82 Standard Power Electronic Converters 112.1 Standard Buck Converter 112.2 Standard Boost Converter 202.3 Standard Inverting Buck-Boost Converter 242.4 Standard Four-Switch Buck-Boost Converter 262.5 Standard Bidirectional Converter 292.6 Single-Phase Half-Bridge VSC 302.7 Full-Bridge VSC 372.8 Three-Phase VSC 402.9 Modeling of Converter Delays 432.10 Summary and Conclusion 44Part II Feedback Control Systems 493 Frequency-Domain (Transfer Function) Approach 513.1 Key Concepts 513.2 Open-Loop Control 563.3 Closed-Loop (or Feedback) Control 573.4 Some Feedback Loop Properties 673.5 Summary and Conclusion 694 Time-Domain (State Space) Approach 734.1 State Space Representation and Properties 734.2 State Feedback 764.3 State Estimator 784.4 Optimal Control 814.5 Summary and Conclusion 89Part III Distributed Energy Resources (DERs) 935 Direct-Current (dc) DERs 955.1 Introduction 955.2 Overview of a Solar PV Conversion System 975.3 Power Control via Current Feedback Loop 1005.4 Grid Voltage Support 1135.5 Analysis ofWeak Grid Condition 1335.6 Load Voltage Control 1355.7 Grid-Forming Converter Controls 1425.8 Control Scenarios in a PV Converter 1525.9 LCL Filter 1675.10 Summary and Conclusion 1796 Single-Phase Alternating-Current (ac) DERs 1816.1 Power Balance in a dc/ac System 1816.2 Power Control Method via Current Feedback Loop (CFL) 1836.3 Grid-Supportive Controls 2046.4 dc Voltage Control and Support 2196.5 Load Voltage Control and Support 2356.6 DERs in a Hybrid ac/dc Network 2436.7 Summary and Conclusion 2447 Three-Phase DERs 2497.1 Introduction 2497.2 Three-Phase PLL 2557.3 Vector Current Control in Stationary Domain 2627.4 Vector Current Control in Synchronous Reference Frame 2777.5 Grid-Supportive Controls 2977.6 dc Side Voltage Control and Support 3077.7 Load Voltage Control and Support 3187.8 Summary and Conclusion 334Problems 335References 3388 Summary and Conclusion 341Index 345
Masoud Karimi-Ghartemani, PhD, is a Professor in the Power and Control Group with the Electrical and Computer Engineering Department at Mississippi State University. He is a Senior Member of the IEEE and the author of Enhanced Phase-Locked Looped (EPLL) Structures for Power and Energy Applications.