High Gas Permeability in Aged Superglassy Membranes with Nanosized UiO-66−NH₂/cPIM-1 Network Fillers

Keyphrases

• Polymer Chain 100%
• Nanosize 100%
• High Gas 100%
• Carboxylate 100%
• PIM-1 100%
• Polymers of Intrinsic Microporosity 100%
• Gas Permeability 100%
• 3D Network 66%
• Thin-film Composite Membrane 66%
• CO2 Permeation 66%
• Physical Aging 66%
• C4F7N/CO2 33%
• Performance Improvement 33%
• Functional Groups 33%
• Hydrogen Bonds (H-bonds) 33%
• Aging 33%
• Gas Separation 33%
• Thin Membrane 33%
• Non-equilibrium 33%
• Defect Formation 33%
• Carbon Dots (C-dots) 33%
• Enhanced Surface Area 33%
• Interfacial Compatibility 33%
• Ideal Selectivity 33%
• Gas Permeation 33%
• COOH Group 33%
• Three-dimensional Polymer 33%
• NH2 Groups 33%
• Network Chain 33%
• Novel Polymers 33%
• Carboxylated Polymers 33%
• Nucleation Kinetics 33%
• Chain Relaxation 33%
• 1-form 33%
• Composite Filler 33%

Engineering

• Polymer Chain 100%
• Polymer of Intrinsic Microporosity 100%
• Filler Network 100%
• Thin Films 66%
• Nanocomposite Membrane 66%
• Defects 33%
• Methane 33%
• Functional Group 33%
• Graphics Processing Unit 33%
• Nonequilibrium 33%
• Carbon Quantum Dots 33%
• Separation Gas 33%
• Thin Membrane 33%

Material Science

• Carbon Dioxide 100%
• Gas Permeability 100%
• Thin Films 50%
• Nanocomposites 50%
• Hydrogen Bonding 25%
• Nucleation 25%
• Carbon Quantum Dot 25%