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Full Description
Large rural areas in some regions of the world are still grappling with the challenge of electrification. The optimal solution is to provide reliable energy without adding more fossil fuel plants by using distributed renewable generation.
Microgrids are part of that solution; they are small networks of electricity users, with a local generator that is attached to a centralized larger grid, but which is also able to function independently. They need to be robust and resilient in order to provide reliable power, including in harsh climates. For remote areas microgrids have the advantage of offering an electricity supply even if there are problems with the larger power grid.
This book focuses on the challenges of rural electrification, particularly in poorer regions. It covers low voltage DC distribution system for various applications including charging of electric vehicles (EV). Written by a large team of authors with a wide range of relevant experiences, the book addresses microgrid architectures, converters, energy storage, control, EV integration, business models and economic scheduling, and the role of blockchain technology. The authors have used case studies to provide illustrative examples of the technologies discussed and solutions proposed.
Contents
Part I: Fundamentals
Chapter 1: Overview of microgrids for rural areas and low-voltage applications
Chapter 2: Microgrid architectures
Chapter 3: The microgrid investment and planning in rural locations
Part II: Optimization, control and storage
Chapter 4: Assessment of energy saving for integrated CVR control with large-scale electric vehicle connections in microgrids
Chapter 5: Application of energy storage technologies on energy management of microgrids
Chapter 6: Control technique for integration of smart dc microgrid to the utility grid
Chapter 7: Energy management system of a microgrid using particle swarm optimization (PSO) and communication system
Chapter 8: Reconfiguration of distribution network using different optimization techniques
Chapter 9: Intelligent optimization scheduling of isolated microgrids considering energy storage integration, traditional generation, and renewable energy uncertainty costs
Chapter 10: ADMM-based consensus droop control and distributed pinning droop control of isolated AC microgrids
Part III: Converters
Chapter 11: Extendable multiple outputs hybrid converter for AC/DC microgrid
Chapter 12: Multi-input converters for distributed energy resources in microgrids
Chapter 13: Modeling and control of DC-DC converters for DC microgrid application
Part IV: Case studies
Chapter 14: Case studies of microgrids systems
Chapter 15: Smart grid road map and challenges for Turkey
Chapter 16: Nanogrids: good practices and challenges in the projects in Colombia
Chapter 17: Distributed generation deployment in the Libyan MV network: adverse impacts on practised protection scheme in the DN
Chapter 18: Conclusions and future scopes
