Controlling Bicontinuous Polyelectrolyte Complexation for Membrane Selectivity: Redox-Mediated Electrochemical Separation of Volatile Fatty Acids

Keyphrases

• Volatile Fatty Acids 100%
• Bicontinuous 100%
• Redox-mediated 100%
• Electrochemical Separation 100%
• Polyelectrolyte Complexation 100%
• Membrane Selectivity 100%
• Polyelectrolyte 66%
• Organic Acids 66%
• Polyelectrolyte Complex 66%
• Electrodialysis 66%
• Induced Phase Separation 66%
• Nanostructured Membrane 66%
• Hydrophobic Modification 33%
• Active Layer 33%
• Surface Properties 33%
• Self-assembled Nanostructures 33%
• Dilute Concentration 33%
• Phase Separation Behavior 33%
• 4-fold 33%
• Surface-confined 33%
• Ion Selectivity 33%
• Nanofiltration Membrane 33%
• Manure Fermentation 33%
• Energy Consumption Reduction 33%
• Confining Layer 33%
• Tailored Surfaces 33%
• Membrane-based 33%
• Ion Permeation 33%
• Energy Efficient 33%
• Waste Valorization 33%
• Anion Exchange Membrane 33%
• Energy Consumption 33%
• Fold Enrichment 33%
• Sustainable Approach 33%
• Energy-intensive 33%
• Product Recovery 33%
• Simultaneous Removal 33%
• Volatile Fatty Acid Production 33%
• Conventional Electrodialysis 33%
• Cow Manure 33%
• Selective Recovery 33%
• Interfacial Complexation 33%
• Aza-Michael Addition 33%
• Multicomponent Separation 33%
• Small Molecule Separation 33%
• Fermentative Volatiles 33%
• Fermentation Effluent 33%
• Layer-by-layer Complexation 33%

Chemical Engineering

• Volatile Fatty Acid 100%
• Electrodialysis 100%
• Phase Separation 66%
• Organic Acid 66%
• Nanostructure 33%
• Nanofiltration 33%
• Ion Exchange 33%
• Multicomponent Separation 33%
• Simultaneous Removal 33%
• Effluent 33%

Material Science

• Complexation 100%
• Polyelectrolyte 100%
• Surface Property 20%
• Nanofiltration Membrane 20%
• Nanostructure 20%