Microgrid Technology and Microgrid Cluster Development is a comprehensive guide to microgrid systems fundamentals, optimization, control, protection, and energy management.
The book explains microgrid architectures that might be combined to create a cluster of microgrids. This is a valuable resource for all those looking to gain a complete understanding of current microgrid and cluster technology, including students, researchers, faculty, R&D professionals, engineers, and other industry personnel with an interest in grid integration, power systems, and renewable energy.
The microgrid is first defined as a standalone entity with potential interconnections with external grids. Then, the layout, line technology, and interface technology of potential microgrid cluster topologies are designed, with comparison and analysis of the various microgrid and cluster designs in terms of price, scalability, security, dependability, stability, communications, and business models. Key aspects are covered in detail, including optimization algorithms and the role of machine learning and artificial neural networks, control and protection techniques, and energy management and storage.
1. Chapter 1. Introduction to microgrid technology - p. 3 2. Chapter 2. Fundamentals of microgrids - p. 13 3. Chapter 3. Microgrids with energy storage systems - p. 23 4. Chapter 4. Challenges of microgrid operation and their solutions - p. 33 5. Chapter 5. Microgrid reliability assessment and enhancement - p. 47 6. Chapter 6. Stability analysis of microgrid systems - p. 65 7. Chapter 7. Parameter tuning of virtual inertia control and load frequency controller in modern renewable energy integrated power system - p. 81 8. Chapter 8. Microgrid system feasibility analysis - p. 97 9. Chapter 9. Solar PV and DFIG fed wind turbine based microgrid for rural electrification - p. 111 10. Chapter 10. Design and implementation of solar dish Stirling system for smart grid power generation - p. 127 11. Chapter 11. Optimization of microgrid systems - p. 153 12. Chapter 12. Time frequency analysis based fault diagnosis method in PV microgrid integrated electrical distribution system - p. 171 13. Chapter 13. Recent advances in digital twins - p. 191 14. Chapter 14. Utility grid integration of microgrids - p. 203 15. Chapter 15. Energy transaction between microgrids and utility grids - p. 221 16. Chapter 16. Peer-to-peer energy trading in a community microgrid - p. 243 17. PART II. Microgrid cluster development - p. 257 18. Chapter 17. Introduction to microgrid clusters - p. 259 19. Chapter 18. Microgrid cluster development fundamentals - p. 273 20. Chapter 19. Challenges of microgrid cluster operation - p. 283 21. Chapter 20. Issues and solutions related to the control of microgrid clusters - p. 293 22. Chapter 21. Microgrid cluster protection and coordination strategies - p. 303 23. Chapter 22. Utility grid integration of microgrid clusters - p. 315 24. Chapter 23. Conclusion: Microgrid cluster development and future perspectives - p. 323 25. Index - p. 331
Microgrid Technology and Microgrid Cluster Development is a comprehensive guide to microgrid systems fundamentals, optimization, control, protection, and energy management.
The book explains microgrid architectures that might be combined to create a cluster of microgrids. This is a valuable resource for all those looking to gain a complete understanding of current microgrid and cluster technology, including students, researchers, faculty, R&D professionals, engineers, and other industry personnel with an interest in grid integration, power systems, and renewable energy.
The microgrid is first defined as a standalone entity with potential interconnections with external grids. Then, the layout, line technology, and interface technology of potential microgrid cluster topologies are designed, with comparison and analysis of the various microgrid and cluster designs in terms of price, scalability, security, dependability, stability, communications, and business models. Key aspects are covered in detail, including optimization algorithms and the role of machine learning and artificial neural networks, control and protection techniques, and energy management and storage.
1. Chapter 1. Introduction to microgrid technology - p. 3 2. Chapter 2. Fundamentals of microgrids - p. 13 3. Chapter 3. Microgrids with energy storage systems - p. 23 4. Chapter 4. Challenges of microgrid operation and their solutions - p. 33 5. Chapter 5. Microgrid reliability assessment and enhancement - p. 47 6. Chapter 6. Stability analysis of microgrid systems - p. 65 7. Chapter 7. Parameter tuning of virtual inertia control and load frequency controller in modern renewable energy integrated power system - p. 81 8. Chapter 8. Microgrid system feasibility analysis - p. 97 9. Chapter 9. Solar PV and DFIG fed wind turbine based microgrid for rural electrification - p. 111 10. Chapter 10. Design and implementation of solar dish Stirling system for smart grid power generation - p. 127 11. Chapter 11. Optimization of microgrid systems - p. 153 12. Chapter 12. Time frequency analysis based fault diagnosis method in PV microgrid integrated electrical distribution system - p. 171 13. Chapter 13. Recent advances in digital twins - p. 191 14. Chapter 14. Utility grid integration of microgrids - p. 203 15. Chapter 15. Energy transaction between microgrids and utility grids - p. 221 16. Chapter 16. Peer-to-peer energy trading in a community microgrid - p. 243 17. PART II. Microgrid cluster development - p. 257 18. Chapter 17. Introduction to microgrid clusters - p. 259 19. Chapter 18. Microgrid cluster development fundamentals - p. 273 20. Chapter 19. Challenges of microgrid cluster operation - p. 283 21. Chapter 20. Issues and solutions related to the control of microgrid clusters - p. 293 22. Chapter 21. Microgrid cluster protection and coordination strategies - p. 303 23. Chapter 22. Utility grid integration of microgrid clusters - p. 315 24. Chapter 23. Conclusion: Microgrid cluster development and future perspectives - p. 323 25. Index - p. 331
