Structurally Deformed MoS₂ for Electrochemically Stable, Thermally Resistant, and Highly Efficient Hydrogen Evolution Reaction

Keyphrases

• Catalytic Activity 100%
• Hydrogen Evolution Reaction 100%
• Molybdenite 100%
• Physical Transformation 100%
• Dimensional Transitions 100%
• High Efficiency 100%
• Sulfur 50%
• Elevated Temperature 50%
• Thermal Stability 50%
• Temperature Sensitivity 50%
• High-throughput 50%
• Nanostructures 50%
• Biological Materials 50%
• Long-term Stability 50%
• Electrochemical Stability 50%
• Continuous Operation 50%
• Active Sites 50%
• Electronic Coupling 50%
• Synergistic Interaction 50%
• High Strain 50%
• Operation Temperature 50%
• Heterogeneous Interface 50%
• Electrochemically Active Surface Area 50%
• Active Current 50%
• Capillarity 50%
• Thermal Robustness 50%
• Efficient Transport 50%
• Strain Loading 50%
• Electrohydrodynamic Process 50%
• Exfoliated MoS2 50%
• Chemical Exfoliation 50%
• S Vacancy 50%
• New Catalysts 50%
• Hydrogen Evolution Reaction Activity 50%
• Excellent Catalytic Performance 50%
• Molybdenum Disulfide MoS2 50%
• Active Site Density 50%

Material Science

• Hydrogen Evolution 100%
• Catalyst Activity 100%
• Biomaterial 33%
• Density 33%
• Thermal Stability 33%
• Molybdenum 33%
• Capillarity 33%
• Nanostructure 33%

Chemical Engineering

• Nanostructure 100%
• Scalability 100%