Atomic Dispersion and Surface Enrichment of Palladium in Nitrogen-Doped Porous Carbon Cages Lead to High-Performance Electrocatalytic Reduction of Oxygen

Keyphrases

• Palladium 100%
• High Performance 100%
• Oxygen Reduction 100%
• Surface Enhancement 100%
• Atomic Dispersion 100%
• Atomic Surface 100%
• Carbon Cage 100%
• N-doped Porous Carbon 100%
• Photocatalytic Reduction 100%
• Hollow 66%
• Oxygen Reduction Reaction 66%
• Carbon Matrix 66%
• Metal-nitrogen-carbon 66%
• Nitrogen-doped Carbon 66%
• Pyrolysis 33%
• Effective Strategies 33%
• Oxygen Reduction Catalyst 33%
• Alkaline Media 33%
• Electrocatalytic Performance 33%
• Metal Salts 33%
• Metallic Pd 33%
• Carbon Hybrids 33%
• Efficient Electrocatalyst 33%
• Refluxing 33%
• Limited Accessibility 33%
• Coordination Moiety 33%
• Wet Impregnation 33%
• Carbon Nanocomposites 33%
• Coordination Bond 33%
• Organic Precursor 33%
• Atomically Dispersed 33%
• N Coordination 33%
• Pd Nanoparticles 33%
• Pd Catalyst 33%

Material Science

• Palladium 100%
• Nitrogen-Doped Porous Carbon 100%
• Nanocomposites 66%
• Electrocatalysts 66%
• Nanoparticle 33%

Chemical Engineering

• Nanoparticle 100%
• Pyrolysis 100%