Microgrids are pivotal components of next-generation energy systems. Defined as local, integrated networks of interconnected loads and distributed energy resources, microgrids can serve urban or rural districts, islands, or communities, and operate either in parallel with the main grid or autonomously in island mode. When combined with on-site generation, intelligent buildings can also function as microgrids. Efficient control and optimization strategies are critical for ensuring performance, reliability, and sustainability.
This book provides a comprehensive review of developments in microgrid optimization and control, covering topics such as modeling of integrated energy and district heating systems, dynamics and control of grid-connected microgrids, frequency regulation, distributed optimization, integration of distributed energy resources, transactive energy management, and laboratory validation. Real-world examples are illustrated through case studies, including insights from the EUREF Energy Workshop and fog computing-based decentralized energy management.
Offering perspectives from both academia and industry, this volume is an essential reference for engineers, researchers, and graduate students in power systems and control engineering, presenting advanced techniques and practical applications for shaping the future of smart, sustainable energy systems.
