Enabling Technologies and Applications for Power Electronics-Enabled Electric Power Distribution Systems reviews emerging technologies, technical solutions and applications that are central to obtaining a clear appreciation of this paradigm shift in the electric power landscape. Researchers, academics, engineers, consultants and policymakers will gain a thorough understanding of power electronics-enabled power systems that includes rigorous theoretical analysis, application of emerging technologies, and a thorough dissemination of case studies.
Enabling Technologies and Applications for Power Electronics-Enabled Electric Power Distribution Systems reviews emerging technologies, technical solutions and applications that are central to obtaining a clear appreciation of this paradigm shift in the electric power landscape. Researchers, academics, engineers, consultants and policymakers will gain a thorough understanding of power electronics-enabled power systems that includes rigorous theoretical analysis, application of emerging technologies, and a thorough dissemination of case studies.Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Section 1. Overview and Vision 1.1 The need and challenges of power electronics-enabled electric power distribution systems: From power systems perspectives UM-Dearborn 1.2 The need and challenges of power electronics-enabled electric power distribution systems: From power electronics perspectives UT-Austin Section 2. Stability and Reliability of Modern Microgrid 2.1 Large-signal stability analysis of DC microgrid systems based on potential theory UM-Dearborn 2.2 Large-signal stability visualization and enhancement of DC grid UM-Dearborn 2.3 Digital control technologies for DC-DC converters in microgrids UM-Dearborn 2.4 Machine-Learning-assisted reliability analysis of power systems integrated with high-penetration of power converters UM-Dearborn 2.5 Stability and control of weak AC systems UM-Dearborn 2.6 The roles of retail demand response for ancillary services in microgrids UM-Dearborn Section 3. Grid Forming Synchronous Generators for Active Distribution Systems with High Penetration of Distributed Renewable Generation 3.1 From grid-following to grid-forming inverters: a paradigm shift UM-Dearborn & UT-Austin 3.2 Grid-forming photovoltaic inverter UT-Austin Section 4. Solid State Technology for Active Distribution Systems with High Penetration of Distributed Renewable Generation 4.1 Overview of solid-state technology in grid-scale applications UT-Austin 4.2 Solid state transformer (SST) UT-Austin 4.3 Solid state circuit breaker (SSCB) and fault isolation device (FID) UT-Austin
Section 1. Overview and Vision 1.1 The need and challenges of power electronics-enabled electric power distribution systems: From power systems perspectives UM-Dearborn 1.2 The need and challenges of power electronics-enabled electric power distribution systems: From power electronics perspectives UT-Austin Section 2. Stability and Reliability of Modern Microgrid 2.1 Large-signal stability analysis of DC microgrid systems based on potential theory UM-Dearborn 2.2 Large-signal stability visualization and enhancement of DC grid UM-Dearborn 2.3 Digital control technologies for DC-DC converters in microgrids UM-Dearborn 2.4 Machine-Learning-assisted reliability analysis of power systems integrated with high-penetration of power converters UM-Dearborn 2.5 Stability and control of weak AC systems UM-Dearborn 2.6 The roles of retail demand response for ancillary services in microgrids UM-Dearborn Section 3. Grid Forming Synchronous Generators for Active Distribution Systems with High Penetration of Distributed Renewable Generation 3.1 From grid-following to grid-forming inverters: a paradigm shift UM-Dearborn & UT-Austin 3.2 Grid-forming photovoltaic inverter UT-Austin Section 4. Solid State Technology for Active Distribution Systems with High Penetration of Distributed Renewable Generation 4.1 Overview of solid-state technology in grid-scale applications UT-Austin 4.2 Solid state transformer (SST) UT-Austin 4.3 Solid state circuit breaker (SSCB) and fault isolation device (FID) UT-Austin
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