Highly dispersed Cu atoms in MOF-derived N-doped porous carbon inducing Pt loads for superior oxygen reduction and hydrogen evolution

Engineering & Materials Science

• Metalorganic frameworks 100%
• Porous carbon 99%
• Platinum 73%
• Oxygen reduction reaction 72%
• Atoms 65%
• Hydrogen evolution reaction 65%
• Oxygen 51%
• Hydrogen 50%
• Catalyst supports 23%
• Catalysts 22%
• Doping (additives) 20%
• Platinum alloys 15%
• Energy barriers 13%
• Electronic structure 13%
• Catalyst selectivity 13%
• Catalysis 12%
• Copper alloys 11%
• Catalyst activity 11%
• Alloying 10%
• Discrete Fourier transforms 9%
• Activation energy 9%
• Nanoparticles 8%
• Molecules 8%
• Carbon 6%
• Metals 5%

Chemical Compounds

• Platinum 46%
• Porosity 36%
• Hydrogen 32%
• Dioxygen 30%
• Carbon Atom 29%
• Reduction 28%
• Catalyst 21%
• Alloy 14%
• Alloying 10%
• Energy Barrier 10%
• Electronic State 7%
• Time 7%
• Reaction Activation Energy 7%
• Molecular Cluster 6%
• Catalysis 6%
• Density Functional Theory 6%
• Environment 5%
• Nanoparticle 5%

Earth & Environmental Sciences

• platinum 70%
• hydrogen 48%
• oxygen 41%
• carbon 35%
• catalyst 35%
• catalysis 9%
• base metal 8%
• activation energy 7%
• coordination 7%
• nanoparticle 7%
• electronics 6%
• copper 5%