Thermodynamic guiding principles of high-capacity phase transformation materials for splitting H₂O and CO₂ by thermochemical looping

Keyphrases

• Thermodynamics 100%
• High Capacity 100%
• Phase Transformation 100%
• CO2 Splitting 100%
• Thermochemical Looping 100%
• Thermodynamic Driving Force 66%
• Ferrite 66%
• Chemical Reduction 66%
• Gibbs Free Energy Model 66%
• Splitting Capacity 66%
• Phase Diagram 33%
• Free Energy 33%
• Water Splitting 33%
• Carbon Dioxide CO2 33%
• Reaction Thermodynamics 33%
• Cost Reduction 33%
• Phase Boundary 33%
• FeCo 33%
• Boundary Location 33%
• High-flow Oxygen 33%
• Configurational Entropy 33%
• Thermal Reduction 33%
• Oxygen Stoichiometry 33%
• Underlining 33%
• CO2 Conversion 33%
• Molar Entropy 33%
• FeNi 33%
• Thermodynamic Factor 33%
• GHG Emissions 33%
• Excess Molar Volume 33%
• Future Materials 33%
• Material Improvement 33%
• Phase Diagram Analysis 33%
• Oxygen Exchange Capacity 33%
• Greenhouse Gases 33%

Chemical Engineering

• Carbon Dioxide 100%
• Thermodynamics 100%
• Gibbs Free Energy 33%
• CO2 Conversion 16%
• Free Energy 16%

Material Science

• Carbon Dioxide 100%
• Greenhouse Gas 33%
• Gibbs Free Energy 33%
• Ferrite 33%
• Phase Interface 16%
• CO2 Conversion 16%