Fundamentals of Renewable Energy Processes (4th Ed.)
Auteurs : da Rosa Aldo Vieira, Ordonez Juan Carlos
PART I: HEAT ENGINES
2. A Minimum of Thermodynamics and of the Kinetic Theory of Gases
3. Mechanical Heat Engines
4. Ocean Thermal Energy Converters
5. Thermoelectricity
6. Thermionics
7. AMTEC
8. Radio-Noise Generators
PART II: THE WORLD OF HYDROGEN
9. Fuel Cells
10. Hydrogen Production
11. Hydrogen Storage
PART III: ENERGY FROM THE SUN
12. Solar Radiation
13. Biomass
14. Photovoltaic Converters
PART IV: WIND AND WATER
15. Wind Energy
16. Ocean Engines
PART V: LAND AND BEYOND
17. Nuclear Energy
18. Storage of Energy
Primary: Undergraduate and first year graduate engineering students taking courses on renewable energy topics. Secondary: Engineers, scientists and technicians working with renewable energy
Juan C. Ordonez is a Professor of Mechanical Engineering at Florida State University, where he serves as Director of the Energy and Sustainability Center and as Principal Investigator on thermal management for the Center for Advanced Power Systems. His research lies within the fields of heat transfer and applied thermodynamics and their application to the design, modeling and optimization of energy systems. He obtained his Ph.D. in Mechanical Engineering from Duke University working in the field of thermodynamic optimization and his M.S. degree in Energy Systems and a B.S. in Mechanical Engineering from UPB – Colombia.
- Illuminates the basic principles behind all key renewable power sources, including solar, wind, biomass, hydropower and fuel cells
- Connects scientific theory with practical implementation through physical examples and end-of-chapter questions of increasing difficulty to help readers apply their knowledge
- Offers completely revised content for better student accessibility
- Updated with expanded coverage of such topics as solar thermal processes, hydropower and renewable energy storage technologies
Date de parution : 06-2021
Ouvrage de 944 p.
19x23.4 cm
Thèmes de Fundamentals of Renewable Energy Processes :
Mots-clés :
airfoil; Betz limit; blade profile; carbon dioxide emissions; CO2; Coanda effect; Darrieus; drag coefficient; drag type turbine; emissions; energy from the ocean; energy resources; energy units; energy use; Göttingen airfoil; gyromill; history of wind; horizontal wind turbines; Keeling curve; levelized cost of electricity; levelized cost of energy; lift coefficient; lift type turbine; Magnus effect wind; market penetration function; ocean temperature; ocean thermal energy conversion; OTEC; OTEC resources; Persian wind turbine; planetary energy balance; radio-noise converter; radio-noise generators; Rayleigh distribution; resistor noise; Reynolds number; Savonius; solidity; vertical wind turbines; wake rotation; Weibull distribution; wind energy; wind forces diagram; wind power