Greigite Fe₃S₄-Derived α-FeO(OH) Promotes Slow O-O Bond Formation in the Second-Order Oxygen Evolution Reaction Kinetics

Engineering & Materials Science

• Oxygen evolution reaction 100%
• Reaction kinetics 58%
• Nickel 18%
• Peroxides 17%
• Catalysts 16%
• Positive ions 16%
• Electrolytes 12%
• Foams 12%
• Iron 11%
• Oxides 11%
• Nanosheets 9%
• Transition metals 9%
• Precious metals 8%
• Iron oxides 8%
• Surface structure 7%
• Temperature 7%
• Activation energy 6%
• Current density 6%
• Anodes 6%
• Chemical activation 5%
• Electrodes 5%

Physics & Astronomy

• reaction kinetics 47%
• oxygen 31%
• electrokinetics 21%
• catalysts 16%
• peroxides 14%
• nickel 14%
• hydroxides 13%
• attack 12%
• foams 11%
• cations 9%
• electrolytes 9%
• slopes 8%
• iron 8%
• noble metals 6%
• iron oxides 6%
• metal oxides 5%
• temperature 5%
• performance 5%
• anodes 5%
• transition metals 4%
• routes 4%
• activation 4%
• activation energy 4%
• current density 4%
• oxides 3%
• electrodes 3%
• kinetics 3%
• coefficients 3%
• cells 3%
• interactions 2%

Chemical Compounds

• Greigite 89%
• Dioxygen 25%
• Foam 13%
• Peroxide 13%
• Catalyst 9%
• Transfer Coefficient 9%
• Cation 8%
• Surface Structure 7%
• Noble Metal 7%
• Iron Oxide 7%
• Kinetics Type 6%
• Drop 6%
• Metal Oxide 6%
• Nanosheet 6%
• Current Density 5%
• Anode 5%
• Transition Element 5%
• Reaction Activation Energy 5%
• Surface 4%
• Oxide 4%
• Behavior as Electrode 3%