MoP-NC Nanosphere Supported Pt Nanoparticles for Efficient Methanol Electrolysis

Keyphrases

• Acid Medium 20%
• Active Center 20%
• Anti-poisoning Ability 20%
• Average Particle Size 20%
• Band Center 20%
• Base Metals 20%
• Binding Energy 20%
• Catalytic Ability 40%
• Catalytic Performance 20%
• Catalytic Reaction 20%
• Cell Voltage 20%
• Cleanliness 20%
• Effective Strategies 20%
• Efficient Bifunctional Catalyst 20%
• Efficient Electrocatalyst 20%
• Electrocatalytic Water Splitting 20%
• Electrolysis 20%
• Electron Transfer 20%
• Electronic Effect 20%
• Energy Band 20%
• Energy Consumption 20%
• Energy Consumption Reduction 20%
• Energy Saving 20%
• Energy Storage 20%
• Green Hydrogen 20%
• High Efficiency 20%
• Hydrogen Energy 20%
• Hydrogen Evolution Reaction 40%
• Hydrogen Generation 80%
• Hydrogen Production 20%
• Hydroxyl Species 20%
• Low Overpotential 20%
• Methanol Electrolysis 100%
• Methanol Oxidation 40%
• Methanol Oxidation Reaction 100%
• Nanospheres 100%
• Noble Metals 20%
• Novel Catalyst 20%
• Overall Water Splitting 20%
• Oxidation Performance 20%
• Oxidative Removal 20%
• Oxophilic 20%
• Oxygen Evolution Reaction 100%
• Peak Current Density 20%
• Phosphide 20%
• Poisoning 20%
• Porous Spherical Structure 20%
• Potential Energy 20%
• Pt Active Sites 20%
• Pt-based Materials 20%
• Reaction Performance 20%
• Renewability 20%
• Slow Kinetics 20%
• Standard Hydrogen Electrode 20%
• Supported Pt Nanoparticles 100%
• Theoretical Potential 40%
• Toxic Intermediates 20%
• Ultrafine Pt Nanoparticles 20%
• Water Electrolysis 20%
• Water Oxidation 20%
• Water Splitting Devices 20%

Chemical Engineering

• Catalytic Reaction 8%
• Electrocatalytic Water Splitting 8%
• Hydrogen Production 8%
• Methanol 100%
• Nanoparticle 100%
• Nanosphere 100%
• Precious Metal 8%
• Transition Metal 8%