Thermodynamic Constraints in Using AuM (M = Fe, Co, Ni, and Mo) Alloys as N₂ Dissociation Catalysts: Functionalizing a Plasmon-Active Metal

Engineering & Materials Science

• Plasmons 100%
• Plasmonics 55%
• Thermodynamics 48%
• Catalysts 48%
• Plasmonic nanoparticles 37%
• Metals 36%
• Oxidation 33%
• Metal nanoparticles 31%
• Redox reactions 29%
• Density functional theory 28%
• Phase separation 24%
• Military operations 22%
• Patents and inventions 22%
• Agriculture 20%
• Ammonia 20%
• Electrons 19%
• Chemical activation 16%
• Fabrication 13%
• Temperature 7%

Physics & Astronomy

• catalysts 52%
• plasmons 46%
• dissociation 46%
• thermodynamics 38%
• reactivity 37%
• warfare 30%
• metals 28%
• oxidation 27%
• agriculture 27%
• inventions 24%
• footprints 21%
• affinity 20%
• ammonia 19%
• routes 15%
• activation 15%
• density functional theory 14%
• synthesis 13%
• nanoparticles 12%
• fabrication 11%
• decay 10%
• excitation 9%
• electrons 7%

Chemical Compounds

• Dissociation 40%
• Alloy 39%
• Thermodynamics 35%
• Metal Nanoparticle 28%
• Redox Reactions 26%
• Oxidation Reaction 25%
• Metal 25%
• Phase Separation 24%
• Catalyst 23%
• Ammonia 21%
• Surface 18%
• Density Functional Theory 17%
• Pressure 16%
• Electron Particle 15%
• Reduction 12%