Synergistic Coupling of Anionic Ligands to Optimize the Electronic and Catalytic Properties of Metal-Organic Framework-Converted Oxygen-Evolving Catalysts

Keyphrases

• Fe3+ 100%
• Electronic Properties 100%
• Catalytic Properties 100%
• Ni2+ 100%
• Metal-organic Frameworks (MOFs) 100%
• Synergistic Coupling 100%
• Oxygen-evolving Catalyst 100%
• Anionic Ligands 100%
• Metal Sites 66%
• Multi-metallic 66%
• Oxygen Evolution Reaction Electrocatalyst 66%
• Low Temperature 33%
• Chemical Environment 33%
• Redox Properties 33%
• Electron Density 33%
• Synergistic Interaction 33%
• Multiple Metals 33%
• Oxygen Evolution Reaction 33%
• Highly Active 33%
• Catalyst Surface 33%
• Material Model 33%
• Surface Reconstruction 33%
• Electrochemical Conversion 33%
• Electron Transfer Efficiency 33%
• Reaction Activity 33%
• Intrinsic Activity 33%
• Catalyst System 33%
• Electron-withdrawing 33%
• Metal-organic Framework Precursor 33%
• Phosphorization 33%
• Model Catalyst 33%
• NiFe-LDH 33%
• NiFe-based 33%
• Multimetallic Catalyst 33%

Material Science

• Metal-Organic Framework 100%
• Catalyst 100%
• Oxygen Evolution 75%
• Electronic Property 50%
• Electrocatalysts 50%
• Electron Transfer 25%
• Carrier Concentration 25%
• Surface Reconstruction 25%

Chemical Engineering

• Metal-Organic Frameworks 100%
• Catalyst Surface 50%
• Electron Transfer Efficiency 50%