Smart grids enable efficient integration of rising shares of distributed and intermittent renewable power generation at various scales, and variable loads, for example from electric vehicles. This requires sophisticated communication and computation, as well as monitoring and protection from both malfunctions and malicious interference.

This comprehensive book describes how to systematically assess the stability of electrical grids with a high share of power electronics converters and considers what their presence in the electrical grid entails. It is divided into three areas: Part 1 presents the three fundamental stability analysis methods and tools for power electronics systems; Part 2 examines applications in power utility systems; and Part 3 describes applications in microgrids and mobile power systems.

Power systems need to be optimised for efficient use of resources and in order to meet stringent requirements for power quality and reliability. Algorithms exist and are in development for various tasks including sizing, voltage and frequency control, demand response, fault identification, and for specific situations and systems such as hybrid energy systems and hot climates. Especially in urban areas with high population densities, researchers and experts need to be abreast of R&D trends, both for energy systems for communities as well as for smart grid developments.

Power systems need to be optimised for efficient use of resources and in order to meet stringent requirements for power quality and reliability. Algorithms exist and are in development for various tasks including sizing, voltage and frequency control, demand response, fault identification, and for specific situations and systems such as hybrid energy systems and hot climates. Especially in urban areas with high population densities, researchers and experts need to be abreast of R&D trends, both for energy systems for communities as well as for smart grid developments.