Fine-tuned combination of cell and electrode designs unlocks month-long stable low temperature Cu-based CO₂ electrolysis

Keyphrases

• Low Temperature 100%
• Ethylene 100%
• Electrode Design 100%
• Cell Design 100%
• CO2 Electrolysis 100%
• Cu-based 100%
• Cell Architecture 75%
• Electrolyzers 50%
• Gas Diffusion Electrode 50%
• Long-term Stability 25%
• Catalytic Activity 25%
• Degradation Mechanism 25%
• High Current Density 25%
• CO2 Utilization 25%
• Cell Potential 25%
• Decarbonization 25%
• Electrolysis 25%
• Rapid Transition 25%
• Chemical Production 25%
• Catalyst Layer 25%
• Faradaic Efficiency 25%
• Innovative Potential 25%
• Stability Testing 25%
• CO2 Electroreduction 25%
• Green Chemicals 25%
• Technical Maturity 25%
• Extended Stability 25%
• Salt Formation 25%
• Anion Exchange Ionomer 25%
• C2 Selectivity 25%
• Zero-gap Cell 25%
• C2+ Products 25%
• Metal Oxide Layers 25%

Engineering

• Low-Temperature 100%
• Gap Cell 100%
• Gaseous Diffusion 100%
• Oxide Layer 50%
• Degradation Mechanism 50%
• High Current Density 50%
• Chemical Production 50%
• Catalyst Layer 50%
• Enzymatic Activity 50%
• Initial Investigation 50%
• Ionomer 50%
• Carbon Dioxide Utilization 50%
• Carbon Dioxide Electroreduction 50%
• Ion Exchange 50%

Chemical Engineering

• Carbon Dioxide 100%
• Gas Diffusion Electrode 40%
• Carbon Dioxide Utilization 20%
• Ionome 20%
• Scalability 20%
• Carbon Dioxide Electroreduction 20%
• Anion Exchange 20%
• High Current Density 20%