Direct conversion of methane to aromatics and hydrogen via a heterogeneous trimetallic synergistic catalyst

Keyphrases

• Aromatics 100%
• Zeolite 100%
• Synergistic Catalysis 100%
• Direct Methane Conversion 100%
• Tri-metallic 100%
• Molybdenum 66%
• Methane Conversion 66%
• Benzene 66%
• Synergistic Interaction 66%
• Alloy Clusters 66%
• Regeneration 33%
• Methane 33%
• External Surface 33%
• Activated Carbon 33%
• DFT Calculations 33%
• Real-world Application 33%
• Enhanced Catalytic Activity 33%
• Mo2C 33%
• Non-oxidative 33%
• Mo Effect 33%
• Deactivation Rate 33%
• Bimetallic Alloy 33%
• Methane Dehydroaromatization 33%
• Robust Stability 33%
• Methane Activation 33%
• Mechanism Study 33%
• Trimetallic Catalyst 33%
• Aromatic Selectivity 33%
• Mo-ZSM-5 33%
• C-C Coupling 33%
• Ligand Effects 33%
• Natural Gas Upgrading 33%
• Bi Particles 33%
• Oligomerization 33%
• Catalysis Activity 33%
• Aromatization Reaction 33%
• Carbon-carbon Bond 33%

Chemical Engineering

• Methane Conversion 100%
• Oligomerization 50%