Cathodic Corrosion at the Bismuth-Ionic Liquid Electrolyte Interface under Conditions for CO₂ Reduction

Keyphrases

• Bismuth 100%
• Density Functional Calculations 100%
• Electrolyte Interface 100%
• Imidazolium Cation 100%
• Imidazolium 100%
• Ionic Liquid Electrolyte 100%
• Cathodic Corrosion 100%
• CO2 Reduction 100%
• X-ray Reflectivity 50%
• Desorption 50%
• Molecular Dynamics Simulation 50%
• Structural Change 50%
• Step Edge 50%
• Negatively Charged 50%
• Cyclic Voltammetry 50%
• Metal Surface 50%
• Oxide Layer 50%
• Well-ordered 50%
• Bragg Peak 50%
• Terraces 50%
• Reflectivity 50%
• ReaxFF MD Simulation 50%
• Electrolyte 50%
• (001) Surface 50%
• ReaxFF 50%
• Bismuth Oxide 50%
• Non-aqueous 50%
• Electrolyte Composition 50%
• Anodic 50%
• Lateral Size 50%
• Bismuth Film Electrode 50%
• Imidazolium Ionic Liquids 50%
• Tetrabutylammonium 50%
• Silver Chloride 50%
• 1-butyl-3-methylimidazolium 50%
• Potential Cycling 50%
• Cathodic Polarization 50%
• In Situ X-ray 50%
• Bifilm 50%
• Partial Dissolution 50%
• Electrochemically Induced 50%
• Potential Sweep 50%
• CO2 Catalytic Reduction 50%

Chemistry

• Ionic Liquid 100%
• Bismuth 100%
• Electrolyte Solution 100%
• Reflectivity 100%
• Carbon Dioxide Reduction 100%
• formation 100%
• Imidazolium Cation 100%
• Density Functional Theory 100%
• Desorption 50%
• Acetonitrile 50%
• Cyclic Voltammetry 50%
• 1-Butyl-3-Methylimidazolium 50%
• Tetrabutylammonium 50%
• Carbon Dioxide 50%
• electrode 50%
• Cathodic Polarization 50%
• Molecular Dynamics Simulation 50%
• Oxide 50%

Material Science

• Bismuth 100%
• Film 100%
• Carbon Dioxide 100%
• Corrosion 100%
• Ionic Liquid 100%
• Density 66%
• Reflectivity 66%
• Oxide Compound 33%
• Desorption 33%
• Cyclic Voltammetry 33%
• Metal Surface 33%