Systematic Postsynthetic Modification of Nanoporous Organic Frameworks for Enhanced CO₂ Capture from Flue Gas and Landfill Gas

Keyphrases

• Nitro Group 100%
• Nanoporous 100%
• Flue Gas 100%
• Enhanced CO2 100%
• CO2 Capture 100%
• Amine-functionalized 100%
• Organic Frameworks 100%
• Post-synthetic Modification 100%
• Landfill Gas 100%
• Regenerability 50%
• High Surface Area 50%
• Pore Wall 50%
• Micropore 50%
• Benzene 50%
• Tris 50%
• Isosteric Heat of Adsorption 50%
• Nitration 50%
• Mesopore 50%
• Aniline 50%
• Post-synthetic 50%
• Micropore Volume 50%
• Brunauer-Emmett-Teller Surface Area 50%
• CO2 Capacity 50%
• CO2 Removal 50%
• Amine Functionality 50%
• Total Pore Volume 50%
• Yamamoto Coupling 50%
• Bromophenyl 50%
• Capacity Value 50%
• Microporous Structure 50%
• Nickel(0) 50%
• Porous Organic Materials 50%
• Functionalized Pore 50%

Chemistry

• Nanoporosity 100%
• Flue Gas 100%
• Carbon Dioxide 100%
• Surface Area 75%
• Nitro Group 50%
• Micro Porosity 25%
• Porosity 25%
• Heat of Adsorption 25%
• Tris 25%
• Yamamoto Allylation 25%
• Benzene 25%
• Alkalinity 25%
• nitration 25%

Material Science

• Carbon Dioxide 100%
• Flue Gas 100%
• Pore Volume 25%
• Heat of Adsorption 25%
• Nitration 25%