Fabrication of structurally improved KNaTiO₃ pellets derived from cheap rutile sand for high-temperature CO₂ capture

Keyphrases

• Alkali Titanate 50%
• Application in Industry 25%
• Attrition Rate 25%
• Biomass-fired Power Plant 25%
• Cellulose 50%
• CO2 Capture Kinetics 25%
• CO2 Removal 50%
• CO2 Sorbent 25%
• CO2 Sorption 50%
• CO2 Uptake 25%
• Compression Strength 25%
• Cost Aspects 25%
• Cyclic Performance 25%
• Diffusion Model 25%
• Extrusion-spheronization 25%
• High CO2 75%
• High Cyclic Stability 25%
• High Cycling Stability 25%
• High Sorption 25%
• High Temperature CO2 Capture 100%
• High-temperature CO2 Sorbent 50%
• Hydrogen Production 25%
• KNaTiO3 100%
• Mainstream Research 25%
• Model Fitting 25%
• Na Doping 25%
• Plant Production 25%
• Pore Former 25%
• Powder Type 25%
• Relative Compression 25%
• Removal Rate 50%
• Reversible Adsorption 25%
• Robust Mechanical Properties 25%
• Rutile 100%
• Sand 100%
• SEM Analysis 25%
• Sodium Titanate 25%
• Sodium-to-potassium Ratio 25%
• Sorbent 75%
• Sorbent Materials 25%
• Sorption Capacity 50%
• Sorption Kinetics 50%
• Sorption Rate 25%
• Titanium Ore 25%

Engineering

• Carbon Dioxide Capture 100%
• Compression Strength 33%
• Cost Aspect 33%
• Cyclic Stability 33%
• Cycling Stability 33%
• Diffusion Model 33%
• Fired Power Plant 33%
• Hydrogen Production 33%
• Potassium Titanates 33%
• Removal Rate 66%
• Robust Mechanical Property 33%
• Sodium Titanate 33%
• Titanate 33%

Chemical Engineering

• Hydrogen Production 20%
• Sorption 100%