Desirable performance and mechanism of RuPd nanoalloys in catalyzing hydrolytic dehydrogenation of NH₃BH₃

Keyphrases

• Metal Alloys 100%
• Dehydrogenation 100%
• Nanoalloys 100%
• NH3BH3 100%
• RuPd 100%
• Hydrolytic Dehydrogenation 100%
• Hydrolytic Reaction 100%
• Nanoparticles 50%
• Aqueous Solution 50%
• Room Temperature 50%
• Catalytic Activity 50%
• Hydrolysis 50%
• Kinetic Isotope Effect 50%
• Liquid Phase 50%
• Hydrophilicity 50%
• Robust Catalyst 50%
• NaOH Solution 50%
• Scission 50%
• Turnover Frequency 50%
• Catalytic Mechanism 50%
• Isotopic Analysis 50%
• Bimetallic Catalyst 50%
• Hydrogen Energy 50%
• Hydrogen Economy 50%
• Cyclic Test 50%
• 18th 50%
• Long-term Durability 50%
• Frequency Generation 50%
• Alloying Effect 50%
• Porous Carbon 50%
• Geometric Effect 50%
• Hydrogen Generation Rate 50%
• Enhanced Catalytic Activity 50%
• Monometallic 50%
• Rate-controlling Step 50%
• Alloy Catalyst 50%
• Anchoring Effect 50%
• Ammonia Borane 50%
• N/O Co-doped 50%
• Self-hydrolysis 50%
• RuPd Alloy 50%
• Promising Strategies 50%
• OH Bond 50%
• Chemical Hydrogen Storage Materials 50%

Engineering

• Dehydrogenation 100%
• Enzymatic Activity 66%
• Hydrogen Energy 33%
• Hydrogen Generation 33%
• Ammonia Boranes 33%
• Controlling Step 33%
• Chemical Hydrogen Storage 33%
• Nanoparticles 33%
• Room Temperature 33%
• Liquid Phase 33%
• Porosity 33%
• Aqueous Solution 33%
• Hydrophilicity 33%

Material Science

• Dehydrogenation 100%
• Catalyst Activity 66%
• Enzymatic Hydrolysis 66%
• Nanoparticle 33%
• Porous Carbon 33%
• Hydrogen Storage Material 33%