On the efficiency of solar H₂ and CO production via the thermochemical cerium oxide redox cycle: The option of inert-swept reduction

Keyphrases

• Heat Recovery 100%
• Redox Cycle 100%
• Cerium Oxide 100%
• Flow Model 80%
• Solid Phase 60%
• Sweep Gas 60%
• Mixed Flow 60%
• Solar-to-fuel Efficiency 60%
• Countercurrent Flow 60%
• Countercurrent 40%
• Ceria 40%
• Sensible Heat 40%
• Gasses 40%
• Water Splitting 40%
• Flow Configuration 40%
• Gas Phase 20%
• Metal Oxide 20%
• Reactor Design 20%
• Oxidation Reaction 20%
• Non-physical 20%
• Commercially Viable 20%
• Efficient Operation 20%
• Drawing Conclusions 20%
• Maximum Efficiency 20%
• Chemical Equilibrium 20%
• Solar Thermochemical 20%
• Thermodynamic Model 20%
• Mechanical Work 20%
• Oxidation Temperature 20%
• Process Efficiency 20%
• Reduction Reaction 20%
• Oxidizer 20%
• Oxidation Reactor 20%
• Thermochemical Redox Cycle 20%
• Temperature Swing 20%
• Gas-solid Flow 20%
• Gas-solid Interaction 20%
• Ceria-based 20%
• Reduction Reactor 20%

Engineering

• Heat Recovery 100%
• Flow Model 80%
• Countercurrent Flow 60%
• Fuel Efficiency 60%
• Multiphase Flow 60%
• Flow Configuration 40%
• Sensible Heat 40%
• Countercurrent 40%
• Water Splitting 40%
• Reactant 20%
• Lead Model 20%
• Thermodynamic Model 20%
• Metal Oxide Cycle 20%
• Oxidizer 20%

Chemical Engineering

• Oxide 100%
• Cerium Compound 100%
• Thermodynamics 33%
• Oxidation Reactor 33%
• Gas-solid Flow 33%