Weidong Xiao

Photovoltaic Power System

Modeling, Design, and Control

• Gebundenes Buch

Produktbeschreibung

Photovoltaic Power System: Modelling, Design and Control is an essential reference with a practical approach to photovoltaic (PV) power system analysis and control. It systematically guides readers through PV system design, modelling, simulation, maximum power point tracking and control techniques making this invaluable resource to students and professionals progressing from different levels in PV power engineering.

The development of this book follows the author's 15-year experience as an electrical engineer in the PV engineering sector and as an educator in academia. It provides the background knowledge of PV power system but will also inform research direction.

Key features:
_ Details modern converter topologies and a step-by-step modelling approach to simulate and control a complete PV power system.
_ Introduces industrial standards, regulations, and electric codes for safety practice and research direction.
_ Covers new classification of PV power systems in terms of the level of maximum power point tracking.
_ Contains practical examples in designing grid-tied and standalone PV power systems.
_ Matlab codes and Simulink models featured on a Wiley hosted book companion website.

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Produktdetails

• Verlag: Wiley / Wiley & Sons
• Artikelnr. des Verlages: 1W119280340
• 1. Auflage
• Seitenzahl: 400
• Erscheinungstermin: 24. Juli 2017
• Englisch
• Abmessung: 250mm x 175mm x 26mm
• Gewicht: 872g
• ISBN-13: 9781119280347
• ISBN-10: 1119280346
• Artikelnr.: 47887475

Autorenporträt

WEIDONG XIAO, The University of Sydney, Australia Weidong Xiao is an Associate Professor within the University of Sydney's School of Electrical and Information Engineering. His research interests include PV power systems, power electronics, dynamic systems and control, and industry applications.

Inhaltsangabe

Preface xiii

Acknowledgments xvii

About the companion website xix

1 Introduction 1

1.1 Cell, Module, Panel, String, Subarray, and Array 2

1.2 Blocking Diode 5

1.3 Photovoltaic Cell Materials and Efficiency 6

1.4 Test Conditions 7

1.5 PV Module Test 8

1.6 PV Output Characteristics 9

1.7 PV Array Simulator 12

1.8 Power Interfaces 13

1.9 Standalone Systems 13

1.10 AC Grid-connected Systems 18

1.11 DC Grid and Microgrid Connections 19

1.12 Building-integrated Photovoltaics 21

1.13 Other Solar Power Systems 22

1.14 Sun Trackers 23

Problems 24

References 24

2 Classification of Photovoltaic Power Systems 25

2.1 Background 25

2.2 CMPPT Systems 26

2.2.1 Power Loss due to PV Array Mismatch 29

2.2.2 Communication and Data Acquisition for CMPPT Systems 32

2.3 DMPPT Systems at PV String Level 36

2.4 DMPPT Systems at PV Module Level 37

2.4.1 Module-integrated Parallel Inverters 37

2.4.2 Module-integrated Parallel Converters 39

2.4.3 Module-integrated Series Converters 40

2.4.4 Module-integrated Differential Power Processors 40

2.4.5 Module-integrated Series Inverters 41

2.5 DMPPT Systems at PV Submodule Level 42

2.5.1 Submodule-integrated Series Converters 42

2.5.2 Submodule-integrated Differential Power Processors 43

2.5.3 Isolated-port Differential Power Processors 44

2.6 DMPPT Systems at PV Cell Level 44

2.7 Summary 45

Problems 46

References 46

3 Safety Standards, Guidance and Regulation 49

3.1 Certification of PV Modules 49

3.2 Interconnection Standards 51

3.3 System Integration to Low-voltage Networks 55

3.3.1 Grounded Systems 55

3.3.2 DC Ground Fault Protection 56

3.3.3 Voltage Specification 56

3.3.4 Circuit Sizing and Current 58

3.3.5 Cable Selection 58

3.3.6 Connectors and Disconnects 59

3.3.7 Grid Interconnections through Power Distribution Panels 59

3.3.8 Marking 60

3.4 System Integration to Medium-voltage Network 60

3.4.1 Active Power Throttling 61

3.4.2 Fault Ride-through 61

3.4.3 Reactive Power Support 62

3.5 Summary 63

Problems 63

References 64

4 PV Output Characteristics and Mathematical Models 65

4.1 Ideal Single-diode Model 68

4.1.1 Product Specification 68

4.1.2 Parameter Identification at Standard Test Conditions 69

4.1.3 Variation with Irradiance and Temperature 71

4.2 Model Accuracy and Performance Indices 75

4.3 Simplified Single-diode Models 78

4.3.1 Parameter Identification: Part One 79

4.3.2 Parameter Identification: Part Two 81

4.3.3 Variation with Irradiance and Temperature 87

4.4 Model Selection from the Simplified Single-diode Models 88

4.5 Complete Single-diode Model 91

4.6 Model Aggregation and Terminal Output Configuration 92

4.7 Polynomial Curve Fitting 95

4.8 Summary 99

Problems 100

References 101

5 Power Conditioning 103

5.1 PV-side Converters 104

5.1.1 PV Module for Case Study 105

5.1.2 Buck Converter 105

5.1.3 Full-bridge Isolated Transformer DC/DC Converter 110

5.1.4 Boost Converter 115

5.1.5 Tapped-inductor Boost Topology 119

5.1.6 Buck-Boost C

Rezensionen

?This book is an excellent explanation of PV power systems and its controls. It brings sufficient knowledge on modeling and designing different kinds of PV systems (both standalone and grid-tied). In the first 4 chapters, it focuses more on the introduction and PV basics such as PV classification, characteristics, and mathematical models. This information will lead readers to a general understanding of PV fundamentals, providing a smooth transition from basic knowledge to advanced industrial PV applications. It perfectly combines the theory and practical exercises. In chapter 5, it discusses the design, simulates and evaluates of state-of-art system components such as PV-side converters, battery-side converters, and grid-side converters. After discussing the system components, in the next two chapters, the complete dynamic modeling of PV systems are introduced. This book emphasizes the computer-aided analysis and simulation verification. The detailed equations behind the functions are provided, and the simulation blocks used are built using the commonly used blocks in Simulink. Readers can easily follow the step-by-step instructions to simulate the whole PV system in Matlab. Apart from system modeling, the control of the entire PV system like linear control and MPPT technology are also addressed. This book fulfills important demand in both academia and industry. It is also a perfect choice to support teaching senior-undergraduate and graduate courses.? ? Dr. Yang Du, Xi?an Jiaotong ? Liverpool University ?This is a textbook for a course that would appear to be suitable for upper level graduate students. It could also be used by undergraduates and master?s degree level students who want to get a general idea of how solar electric power systems work. The book reads well and should be accessible to most college students and certainly almost all graduate students. In addition to its use for higher education, this book could be used by engineers and utility executives who want to understand the technology of solar photovoltaic systems?It is possible to contemplate using this book to learn about and to teach about solar photovoltaic systems. This is clearly a textbook: it is not a design reference book. With increasing importance of sustainable sources of electric power, there is a clear need to better educate university students about the technology of photovoltaic power. This book should make a serious contribution.? ? James Kirtley, Professor of Electrical Engineering, Massachusetts Institute of Technology ?This book is an excellent choice for beginners working in the photovoltaic industry. It contains a nice mix of industrial applications/examples along with theoretical derivations of photovoltaic system at component- and system-level. The step-by-step discussion on industry background, problem formulation, mathematical modelling, computer simulation, and practical implementation provides a holistic view of designing photovoltaic systems. Detailed simulations modelling the dynamics of individual photovoltaic cell, maximum power point tracking, energy conversion (DC-DC and DC-AC), and grid-level auxiliary services (such as voltage regulation) are also provided. Since the designed MATLAB/SIMULINK block diagrams are provided throughout this book, reproducing the waveforms and results are feasible. In my opinion, this is the most important element? The addition of this book helps students and researchers to quickly grasp the fundamentals of photovoltaic systems. Note that the materials covered in this book are more suitable for graduate students.? ? Jimmy C.-H. Peng, Assistant Professor, Department of Electrical & Computer Engineering, National University of Singapore ?This book provides an inclusive introduction to the field of photovoltaic systems. It covers the basics of PV systems, their classifications, modeling, practical design issues, and their control and operation. It provides in-depth discussions for several modeling and