Hybrid Renewable Energy Systems and Microgrids
Coordonnateur : Kabalci Ersan
Hybrid Renewable Energy Systems and Microgrids covers the modeling and analysis for each type of integrated and operational hybrid energy system. Looking at the fundamentals for conventional energy systems, decentralized generation systems, RES technologies and hybrid integration of RES power plants, the most important contribution this book makes is combining emerging energy systems that improve micro and smart grid systems and their components. Sections cover traditional system characteristics, features, challenges and benefits of hybrid energy systems over the conventional power grid, the deployment of emerging power electronic technologies, and up-to-date electronic devices and systems, including AC and DC waveforms.
Conventional, emerging and hierarchical control methods and technologies applied in microgrid operations are covered to give researchers and practitioners the information needed to ensure reliability, resilience and flexibility of implemented hybrid energy systems.
2. Centralized Power Generation
3. Distributed Generation and Microgrids
4. Renewable Energy Sources
5. Power Electronics for Hybrid Energy Systems
6. Hybrid RES Power Systems
7. PV Power Plant Planning and Modelling
8. Wind Power Plant Planning and Modelling
9. Fuel Cell and Hydrogen Power Plants
10. Hybrid Energy Storage Systems
11. Electric Vehicles as Source in Grid
12. Control Systems for Hybrid Energy Systems
13. Microgrid Control Technologies
- Presents detailed contents on emerging power networks provided by decentralized and distributed generation approaches
- Covers driving factors, photovoltaic based power plant modeling and planning studies
- Introduces hierarchical control methods and technologies applied in microgrid operations to ensure reliability, resilience and flexibility of hybrid energy systems
Date de parution : 11-2020
Ouvrage de 526 p.
15x22.8 cm
Thème de Hybrid Renewable Energy Systems and Microgrids :
Mots-clés :
?Alternative energy systems; Balanced Y connection; Balanced d connection; Betz limit; Biomass energy; CHP systems; Centralized generation; Configurations and control; Demand response; Demand-side management; Distributed energy resource; Distributed generation; Economic aspects; Electric machines; Electric power systems; Electromechanical energy conversion; Energy efficiency; Energy management; Energy mix; Environmental impact; Financing aspects; Fuel cell; Generators; Grid-connected and islanded mode; Hierarchical control; High-frequency links; Horizontal axis wind turbine; Hybrid RES; Hybrid converters; Hybrid energy storage system; Hybrid energy storage systems; Hybrid energy system; Hybrid microgrids; Hybrid systems; Hydraulic energy; Hydraulic turbines; Hydrogen production; Hydrokinetic energy; Hydropower plants; Instantaneous and complex power; Intelligent algorithm; Kirchhoff’s laws; Microgrid; Microgrid configuration; Modeling; Modular power electronics converters; Multi-criteria decision analysis; Multilevel converters; Nuclear power plants; Nuclear reaction; Ocean energy; Optimization; PV forecasting; PV–diesel–battery system; Per-unit system; Phasor diagram; Photovoltaic energy; Photovoltaic generation; Planning; Power electronics; Power network; Power system planning; Primary control; Rayleigh distribution; Renewable energy; Renewable energy resource; Renewable energy sources; Secondary control; Smart grid; Smart loads; Solar energy; Solid-state transformers; Steam turbines; Tertiary control; Thermoelectric plants; Three-port converters; Vertical axis wind turbine; Virtual power plant; Voltage source converter; Wave energy; Weibull distribution; Wind energy; Wind resource
