Iony Patriota de Siqueira – författare

Engineer, validate, and secure IEC 61850-based protection, automation, and systems Model-Driven Power System Automation describes formal methods for specifying, designing, commissioning, and maintaining automation systems, including digital substations, hydro power plants, wind farms, and distributed energy resources. The book introduces foundational concepts on IEC 61850 and its various models, including substation, product, type, and service; details automation evolution with IEC 61850 capabilities and distributed systems as they apply to remote access systems, client-server systems, and peer-to-peer systems; models various applications with IEC 61850, touching on its abilities in cybersecurity, GOOSE models and system architecture; and applies IEC 61850 as a key catalyst for green energy resources, modeling its importance in hydro power, wind power, and distributed energy resources. Model-Driven Power System Automation discusses: Communication models, covering communication and real-time requirements, abstract and specific interfaces, and mapping to MMS, CORBA, and EthernetFunctional models, covering logical and generic logical nodes, logical devices, proxies and gateways, intelligent electronic devices, and networksData models, covering data modeling and hierarchy, primitive elements, namespaces, common data classes, and functional constraintsEngineering and configuration models, covering extensible markup language, Substation Configuration Language, and substation, product, and communication modelsChallenges in lifecycle management, international standards and best practicesModel-Driven Power System Automation is an excellent reference for electrical and power system engineers, developers, systems architects, and engineering graduates who are working with digital grid technologies and seeking to support modern requirements and integrate renewable energy sources.

Engineer, validate, and secure IEC 61850-based protection, automation, and systems Model-Driven Power System Automation describes formal methods for specifying, designing, commissioning, and maintaining automation systems, including digital substations, hydro power plants, wind farms, and distributed energy resources. The book introduces foundational concepts on IEC 61850 and its various models, including substation, product, type, and service; details automation evolution with IEC 61850 capabilities and distributed systems as they apply to remote access systems, client-server systems, and peer-to-peer systems; models various applications with IEC 61850, touching on its abilities in cybersecurity, GOOSE models and system architecture; and applies IEC 61850 as a key catalyst for green energy resources, modeling its importance in hydro power, wind power, and distributed energy resources. Model-Driven Power System Automation discusses: Communication models, covering communication and real-time requirements, abstract and specific interfaces, and mapping to MMS, CORBA, and EthernetFunctional models, covering logical and generic logical nodes, logical devices, proxies and gateways, intelligent electronic devices, and networksData models, covering data modeling and hierarchy, primitive elements, namespaces, common data classes, and functional constraintsEngineering and configuration models, covering extensible markup language, Substation Configuration Language, and substation, product, and communication modelsChallenges in lifecycle management, international standards and best practices Model-Driven Power System Automation is an excellent reference for electrical and power system engineers, developers, systems architects, and engineering graduates who are working with digital grid technologies and seeking to support modern requirements and integrate renewable energy sources.

This book offers a vision of the future of electricity supply systems and CIGRE’s views on the know-how that will be needed to manage the transition toward them. A variety of factors are driving a transition of electricity supply systems to new supply models, in particular the increasing use of renewable sources, environmental factors and developments in ICT technologies. These factors suggest that there are two possible models for power network development, and that those models are not necessarily exclusive: 1. An increasing importance of large networks for bulk transmission capable of interconnecting load regions and large centralized renewable generation resources, including offshore and of providing more interconnections between the various countries and energy markets. 2. An emergence of clusters of small, largely self-contained distribution networks, which include decentralized local generation, energy storage and active customer participation, intelligently managed so that they operate as active networks providing local active and reactive support. The electricity supply systems of the future will likely include a combination of the above two models, since additional bulk connections and active distribution networks are needed in order to reach ambitious environmental, economic and security-reliability targets. This concise yet comprehensive reference resource on technological developments for future electrical systems has been written and reviewed by experts and the Chairs of the sixteen Study Committees that form the Technical Council of CIGRE.