Core Effect on the Performance of N/P Codoped Carbon Encapsulating Noble-Metal Phosphide Nanostructures for Hydrogen Evolution Reaction

Keyphrases

• Carbon Encapsulation 100%
• Nanostructures 100%
• Hydrogen Evolution Reaction 100%
• N, P Co-doping 100%
• N, P Co-doped Carbon 100%
• Noble Metal Phosphide 100%
• Graphitic Carbon 85%
• Core-shell 28%
• Electrochemical Reactions 28%
• Microstructure 14%
• High Performance 14%
• Further Development 14%
• High Activity 14%
• Nanoparticles 14%
• Catalytic Activity 14%
• Carbon Composite 14%
• High Stability 14%
• Highly Active 14%
• Sulfuric Acid 14%
• Reaction Process 14%
• Electrocatalyst 14%
• Core-shell Structure 14%
• Charge Transfer Reaction 14%
• Ultrathin 14%
• Electrolyte Solution 14%
• Mutual Benefit 14%
• Electrocatalytic Performance 14%
• Chemically Stable 14%
• Core-shell Nanostructure 14%
• Acidic Aqueous Solution 14%
• Stable Carbon Isotopes 14%
• Alkaline Electrolyte 14%
• Oxygen Reduction Reaction 14%
• Carbon Hybrids 14%
• Oxygen Evolution Reaction 14%
• Carbon Shell 14%
• Catalytic Behavior 14%
• Fast Charge Transfer 14%
• Nanostructured Hybrids 14%
• Nanostructured Catalysts 14%
• Hydrogen Evolution Catalyst 14%
• Acidic Electrolyte 14%
• Alkaline Aqueous Solution 14%
• Electrocatalytic Hydrogen Evolution 14%
• Graphitic Carbon Shell 14%
• IRP2 14%
• Core Affect 14%
• Active Hydrogen 14%
• Charged Surface 14%
• Hydrogen Evolution Reaction Activity 14%
• Surface Reaction Rate 14%

Material Science

• Hydrogen Evolution 100%
• Nanostructure 100%
• Electrochemical Reaction 33%
• Electrocatalysts 33%
• Nanoparticle 16%
• Composite Material 16%
• Oxygen Evolution 16%
• Alkaline Electrolyte 16%
• Catalyst Activity 16%
• Surface Reaction 16%

Chemical Engineering

• Precious Metal 100%
• Nanostructure 100%
• Catalytic Reaction 25%
• Nanoparticle 25%