New insights into interface charge-transfer mechanism of copper-iron layered double hydroxide cathodic electrocatalyst in alkaline electrolysis

Engineering & Materials Science

• Hydrogen evolution reaction 100%
• Electrocatalysts 85%
• Charge transfer 71%
• Electrolysis 64%
• Electronic structure 61%
• Adsorption 53%
• Protons 50%
• Iron 49%
• Copper 45%
• Transition metals 40%
• Catalysts 35%
• Modulation 32%
• Electrons 27%
• X ray absorption spectroscopy 27%
• Oxygen evolution reaction 26%
• Electrocatalysis 25%
• Carrier concentration 19%
• Catalysis 18%
• Synchrotrons 18%
• Rare earths 17%
• Nanostructures 16%
• X ray photoelectron spectroscopy 16%
• Reaction kinetics 15%
• Activation energy 14%
• Current density 13%
• Ions 12%
• Costs 10%
• Metals 8%
• Water 7%

Earth & Environmental Sciences

• electrokinesis 52%
• hydroxide 51%
• copper 39%
• iron 36%
• electronics 28%
• hydrogen 21%
• adsorption 18%
• catalyst 18%
• transition element 16%
• X-ray spectroscopy 14%
• electron 9%
• kinetics 8%
• catalysis 8%
• atomic absorption spectroscopy 8%
• electron density 7%
• cost 7%
• activation energy 6%
• allocation 6%
• rare earth element 5%
• oxygen 4%
• ion 4%
• chemical 3%
• water 2%
• method 1%

Chemical Compounds

• Electrolysis 50%
• Charge Transfer 38%
• Hydroxide 22%
• Electronic State 20%
• Hydrogen 18%
• Proton 18%
• Adsorption 13%
• Transition Element 13%
• Electron Transfer 12%
• Catalyst 11%
• Electrocatalysis 9%
• X Ray Absorption Spectroscopy 9%
• Electron Density 8%
• Lanthanoid Atom 6%
• Current Density 6%
• X-Ray Photoelectron Spectroscopy 6%
• Reaction Activation Energy 6%
• Catalysis 5%
• Nanomaterial 5%
• Dioxygen 4%
• Ion 3%