Polyacrylonitrile hollow fiber membranes for efficient CO₂/N₂ separation from flue gas: Fabrication and process optimization

Keyphrases

• Flue Gas 100%
• Hollow Fiber Membrane 100%
• Process Optimization 100%
• Polyacrylonitrile 100%
• Fabrication Optimization 100%
• CO2/N2 Separation 100%
• CO2-N2 40%
• CO2 Permeation 30%
• Mixed Gas 30%
• N2 Selectivity 30%
• GPU 20%
• CO2 Separation Performance 20%
• Physicochemical Analysis 10%
• Structural Characterization 10%
• Vol% 10%
• Room Temperature 10%
• Energy Efficiency 10%
• Pressure Variation 10%
• CO2 Emissions 10%
• Thermal Stability 10%
• Functional Properties 10%
• Industrialization 10%
• Property Stability 10%
• Operational Simplicity 10%
• Separation Applications 10%
• Pure Gas 10%
• Flow Rate Ratio 10%
• Permeation Studies 10%
• Fossil Fuel Consumption 10%
• CO2 Separation 10%
• Membrane Gas Separation 10%
• Long-term Operational Stability 10%
• Better Performance 10%
• Various Approaches 10%
• Scalable Process 10%
• Spinning Parameters 10%
• Feeding Conditions 10%
• Carbon Capture Technology 10%
• Resistance to CO2 10%
• CO2-induced Plasticization 10%
• Asymmetric Morphology 10%
• Industrial CO2 10%

Chemical Engineering

• Carbon Dioxide 100%
• Polyacrylonitrile 100%
• Hollow Fiber Membrane 100%
• N2 Selectivity 30%
• CO2 Separation 30%
• Scalability 10%
• Flow Rate Ratio 10%