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Preface; Contents; Abbreviations; 1 Future Power Systems; 1.1 Introduction; 1.2 Towards a Smart Grid; 1.2.1 More Renewable Generation in the Future; 1.2.2 The Core Elements of the European Smart-Grid Vision; 1.2.3 Changes of the Energy Policy in Europe and the Consequences for Smart Grids; 1.2.4 Power System Operation in the Future. The Need for More Flexibility in the Smart Grid; 1.3 Regulatory Boundaries for Smart Grid and Electric Energy Storage; References; 2 Electric Energy Storage System; 2.1 Requirements for an EES System; 2.1.1 Development of the EES Use in the Power System
2.1.2 Requirements for EES and Extension of Storage Usability in the Smart Grid2.2 Generic Model of EES; 2.2.1 Standardizing Generic Model of EES; 2.2.2 Physical Surface of the EES Model. Mathematical Generic Model; 2.3 EES in the Transmission and Distribution System; 2.3.1 Factors Influencing the Value of Storage in Transmission Networks; 2.3.2 EES in the Distribution System; 2.3.3 Example of Modeling and Implementation of the Models in the Planning and Simulation in Distribution; 2.3.4 Standardized Models of BES Using the Surface and Interface Structure (SIS)
2.4 Storage Systems in Isolated Power Systems2.4.1 Introduction; 2.4.2 A Case-Based Optimization of Electric Energy Storage Size in an Isolated Power System; 2.4.3 Multi-Criteria Optimization of IPS; References; 3 International Development Trends in Power Systems; 3.1 State of the Art; 3.2 Smart Grid Concept for the Future Grid; 3.3 European Scenario; 3.4 Renewable Energy Development in the Iberian Pensinsula; 3.5 The Danish Scenario; 3.6 North American Scenario; 3.7 South American Scenario; 3.8 Japanese Scenario; 3.9 Russian Scenario; 3.10 Chinese Scenario; 3.11 Australian Scenario
6 Mobile Energy Storage Systems. Vehicle-for-Grid Options6.1 Electric Vehicles; 6.2 EV Standards and Technologies for Power and Transportation Systems; 6.3 Electric-Vehicle Networks as Energy Storage Systems in the Power and Transportation System; References; 7 Economics of Electric Energy Storage Systems; 7.1 Electric-Energy Storage System Applications and Services; 7.2 Electric-Energy Storage Economics; 7.2.1 Cost Analysis; 7.2.2 Investment and Operation Costs Analysis of EES; References; 8 Reliability in Smart Grids with Energy Storage Systems; 8.1 Reliability in Power-Energy Systems
2.1.2 Requirements for EES and Extension of Storage Usability in the Smart Grid2.2 Generic Model of EES; 2.2.1 Standardizing Generic Model of EES; 2.2.2 Physical Surface of the EES Model. Mathematical Generic Model; 2.3 EES in the Transmission and Distribution System; 2.3.1 Factors Influencing the Value of Storage in Transmission Networks; 2.3.2 EES in the Distribution System; 2.3.3 Example of Modeling and Implementation of the Models in the Planning and Simulation in Distribution; 2.3.4 Standardized Models of BES Using the Surface and Interface Structure (SIS)
2.4 Storage Systems in Isolated Power Systems2.4.1 Introduction; 2.4.2 A Case-Based Optimization of Electric Energy Storage Size in an Isolated Power System; 2.4.3 Multi-Criteria Optimization of IPS; References; 3 International Development Trends in Power Systems; 3.1 State of the Art; 3.2 Smart Grid Concept for the Future Grid; 3.3 European Scenario; 3.4 Renewable Energy Development in the Iberian Pensinsula; 3.5 The Danish Scenario; 3.6 North American Scenario; 3.7 South American Scenario; 3.8 Japanese Scenario; 3.9 Russian Scenario; 3.10 Chinese Scenario; 3.11 Australian Scenario
6 Mobile Energy Storage Systems. Vehicle-for-Grid Options6.1 Electric Vehicles; 6.2 EV Standards and Technologies for Power and Transportation Systems; 6.3 Electric-Vehicle Networks as Energy Storage Systems in the Power and Transportation System; References; 7 Economics of Electric Energy Storage Systems; 7.1 Electric-Energy Storage System Applications and Services; 7.2 Electric-Energy Storage Economics; 7.2.1 Cost Analysis; 7.2.2 Investment and Operation Costs Analysis of EES; References; 8 Reliability in Smart Grids with Energy Storage Systems; 8.1 Reliability in Power-Energy Systems