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Advances in Grid-Connected Photovoltaic Power Conversion Systems addresses the technological challenges of fluctuating and unreliable power supply in grid-connected photovolt… Read more
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Advances in Grid-Connected Photovoltaic Power Conversion Systems addresses the technological challenges of fluctuating and unreliable power supply in grid-connected photovoltaic (PV) systems to help students, researchers, and engineers work toward more PV installations in the grid to make society more sustainable and reliable while complying with grid regulations. The authors combine their extensive knowledge and experience in this book to address both the basics of the power electronic converter technology and the advances of such practical electric power conversion systems.
This book includes extensive, step-by-step practical application examples to assist students and engineers to better understand the role of power electronics in modern PV applications and solve the practical issues in grid-connected PV systems.
3rd and 4th year Undergrads, Masters and PhD students in power electronics, especially those focusing on PV power conversion systems; Power engineers; PV inverter manufacturers concerned with advanced control strategies to increase competence
1. Introduction
2. Power electronics technologies for PV systems
2.1. Evolution of demands to grid‐connected PV systems
2.2. Power converter topologies
2.3. General control of grid‐connected PV systems
2.4. Summary References
3. PV system modeling, monitoring, and diagnosis
3.1. PV panel modeling
3.2. PV inverter system modeling
3.3. PV panel monitoring and hot‐spot detection
3.4. Summary References
4. Control of PV systems under normal grid conditions
4.1. Maximum power point tracking
4.2. Differential PV power processing technology
4.3. PV inverter current feed‐in control
• Current control
• Harmonic compensation
• Grid synchronization techniques
4.4. Summary References
5. Advanced control of PV systems under abnormal grid conditions
5.1. Grid‐interconnection standards
5.2. Fault ride‐through operation of PV systems
• Low voltage ride‐through for single‐phase PV systems
• Current reference generation for three‐phase PV systems
• Low voltage ride‐through for three‐phase PV systems
5.3. Reactive power injection under grid faults
5.4. Summary References
6. Flexible power control of PV systems
6.1. Active power limiting control
6.2. Delta power (reserve) control
6.3. Power ramp‐rate control
6.4. Reactive power supports during nights
6.5. Summary References
7. Conclusions and Outlook
7.1. Conclusions
Future trends References
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