Self-activated oxophilic surface of porous molybdenum carbide nanosheets promotes hydrogen evolution activity in alkaline environment

Keyphrases

• Alkaline Media 100%
• Pt Catalyst 100%
• Nanosheets 100%
• Alkaline Environment 100%
• Hydrogen Evolution Reaction 100%
• Mo2C 100%
• Molybdenum Carbide 100%
• Self-activated 100%
• Hydrogen Evolution Activity 100%
• Oxophilic 100%
• High Energy 50%
• Activation Energy 50%
• Electronic Configuration 50%
• Adsorption 50%
• Highly Active 50%
• Reaction Kinetics 50%
• Energy Barrier 50%
• D-band 50%
• Acidic Conditions 50%
• Free Water 50%
• Acidic Environment 50%
• Activation Effect 50%
• Attenuated Total Reflection 50%
• Operando 50%
• Reflection Surface 50%
• 3D Porous 50%
• Hydrogen Evolution Catalyst 50%
• Interfacial Water 50%
• Water Dissociation 50%
• Self-activation 50%
• Active Hydrogen 50%
• Hydroxyl Species 50%
• Liquid-like 50%
• Hydrogen Evolution Reaction Mechanism 50%
• Mo-based Electrocatalyst 50%
• Surface-enhanced Infrared Absorption Spectroscopy (SEIRAS) 50%
• Mo2C Nanosheets 50%
• MoxC 50%

Material Science

• Nanosheet 100%
• Hydrogen Evolution 100%
• Carbide 100%
• Molybdenum 100%
• Surface (Surface Science) 100%
• Absorption Spectroscopy 20%
• Activation Energy 20%
• Crystal Structure 20%
• Electrocatalysts 20%

Chemical Engineering

• Nanosheet 100%
• Operando 50%