Active-Site Modulation in an Fe-Porphyrin-Based Metal-Organic Framework through Ligand Axial Coordination: Accelerating Electrocatalysis and Charge-Transport Kinetics

Engineering & Materials Science

• Catalysts 6%
• Characterization (materials science) 6%
• Charge transfer 69%
• Electrocatalysis 100%
• Electrodes 5%
• Electronic properties 12%
• Electrons 15%
• Energy conversion 7%
• Fuel systems 9%
• Kinetic parameters 9%
• Ligands 72%
• Mass transfer 6%
• Metal-Organic Frameworks 88%
• Modulation 42%
• Oxidation-Reduction 20%
• Oxygen reduction reaction 12%
• Porphyrins 96%
• Protons 28%

Medicine & Life Sciences

• Catalytic Domain 49%
• Conversion Disorder 11%
• Drive 8%
• Electrodes 6%
• Electrons 12%
• Kinetics 39%
• Ligands 38%
• Metal-Organic Frameworks 98%
• Oxidation-Reduction 15%
• Oxygen 5%
• Porphyrins 69%
• Protons 23%

Chemical Compounds

• Behavior as Electrode 6%
• Catalyst 5%
• Charge Transfer 37%
• Conductivity 9%
• Counterion 12%
• Dioxygen 6%
• Electrocatalysis 58%
• Electron Transfer 9%
• Electronic Property 11%
• Fuel 11%
• Ligand 23%
• Mass Transfer 11%
• Metal Organic Framework 47%
• Pharmacokinetics 10%
• Proton 8%
• Reduction 6%
• Transfer Reaction 12%