Ultra-High Temperature Thermal Energy Storage, Transfer and Conversion Woodhead Publishing Series in Energy Series
Coordonnateur : Datas Alejandro
2. Thermo-chemically regenerative flow batteries for solar electricity generation and storage
3. Ultra-high temperature sensible heat storage and heat transfer fluids
4. Phase change materials for high temperature operation
5. Solid/liquid interaction between Si-based phase change materials and refractories
6. Techniques for measuring ultra-high temperature thermophysical properties of silicon-based alloys"
7. Numerical methods for phase change materials
8. Ultra-high temperature thermal insulation
9. Dynamic systems for ultra-high temperature energy storage, transfer and conversion
10. Thermionic and thermoelectric energy conversion
11. Thermophotovoltaic energy conversion
12. Ultra-high temperature space power applications
13. Commercialisation of ultra-high temperature energy storage applications: the 1414 Degrees approach
Thermal Energy Engineers and researchers, specifically those involved in ultra-high temperatures, heat transfer and thermodynamics; engineers and researchers in energy storage at temperatures above 1,000ºC; graduate students in energy engineering disciplines, especially those in thermal processes and high temperature thermal energy applications. Those in aerospace and manufacturing fields with interest in advance high temperature thermal propulsion systems and high temperature materials; engineers in solar energy
- Reviews the main technologies enabling ultra-high temperature energy storage and conversion, including both thermodynamic cycles and solid-state devices
- Includes the applications for ultra-high temperature energy storage systems, both in terrestrial and space environments
- Analyzes the thermophysical properties and relevant experimental and theoretical methods for the analysis of high-temperature materials
Date de parution : 09-2020
Ouvrage de 368 p.
19x23.3 cm
Thèmes d’Ultra-High Temperature Thermal Energy Storage, Transfer... :
Mots-clés :
AMADEUS project; Advanced materials; Bimodal; Boron; Carbothermic reduction; Chemical compatibility; Combined heat and power; Compressor; Concentrated solar power; Concentrating solar power (CSP); Conjugate heat transfer; Containment; Convective coupling; Cost; Cost efficiency; Dual mode; Effective energy storage; Effective energy storage density; Energy storage; Engine; Enthalpy; Enthalpy-porosity method; Eutectic; Exchanger; Fixed-grid method; Flow battery; Gas; Heat; Heat shield; Heat storage; Heat transfer fluid; High temperature; Infrared radiation shield; Interfaces; Latent; Latent heat; Latent heat thermal energy storage; Liquid containment; Lithium–air battery; Mars hopper; Material; Measurement techniques; Melting; Metallic; Molten salt; Molten silicon; Multifoil; Multilayer; Near-field radiation; Phase change material; Phase change materials; Photovoltaics; Pump; Pumping; Radioisotope thermal rocket; Recuperation; Renewable energy; Semiconductors; Sensible; Sensible heat storage; Silicon; Simulation; Sodium–sulfur battery; Solar energy conversion; Solar thermal; Solar thermal propulsion; Solid-state; Solidification; Spectral control; Steam; Storage; Thermal bus; Thermal capacitor; Thermal conductivity; Thermal energy conversion; Thermal energy store; Thermal insulation; Thermal radiation; Thermionic energy conversion; Thermionics; Thermochemical; Thermoelectric energy conversion; Thermoelectrochemical storage (TECS); Thermophotonics; Thermophysical properties; Turbine; Ultrahigh temperature; Ultrahigh temperature energy storage; Vacuum insulation; Volume changes; Wettability; Zinc–air battery