Benzothiazole- and benzoxazole-linked porous polymers for carbon dioxide storage and separation

Keyphrases

• CO2 Separation 100%
• Porous Polymers 100%
• Carbon Dioxide Storage 100%
• Benzothiazole 100%
• Benzoxazole 100%
• Benzimidazole-linked Polymers 66%
• High Temperature 33%
• Pore Size 33%
• High Surface Area 33%
• Structural Properties 33%
• Binding Affinity 33%
• CO2 Adsorption 33%
• Theory Calculation 33%
• Micropore 33%
• Selective Adsorption 33%
• Small Pore 33%
• C4F7N/CO2 33%
• Selective CO2 Capture 33%
• Pure Gas 33%
• Heteroatom 33%
• Heat of Adsorption 33%
• Sulfur Atom 33%
• Isotherm 33%
• Gas Uptake 33%
• Porous Organic Polymers 33%
• Oxygen Atom 33%
• Nitrogen Heteroatom 33%
• High Adsorption 33%
• Ideal Adsorbed Solution Theory 33%
• CO2 Uptake 33%
• Total CO2 33%
• Low Gas Pressure 33%
• Physicochemical Stability 33%
• CO2 Storage Capacity 33%
• Nitrogen Functionalities 33%
• CO2 Uptake Capacity 33%
• CO2-philic 33%
• Small Gas Molecules 33%

Chemical Engineering

• Carbon Dioxide 100%
• Carbon Dioxide Capture 25%
• Organic Polymer 12%
• High Adsorption 12%

Material Science

• Carbon Dioxide 100%
• Structural Property 10%
• Heat of Adsorption 10%
• Organic Polymer 10%
• Pore Size 10%