High Sensitivity Plasmonic Sensing of Hydrogen over a Broad Dynamic Range Using Catalytic Au-CeO ₂ Thin Film Nanocomposites

Keyphrases

• High Sensitivity 100%
• Broad Dynamic Range 100%
• Thin Film Composite 100%
• Oxygen-free 100%
• Plasmonic Sensing 100%
• Industrial Process Control 100%
• Au Nanoparticles (AuNPs) 50%
• Dynamic Range 50%
• Sensing Mechanism 50%
• Limit of Detection 50%
• Environmental Monitoring 50%
• Peak Shift 50%
• Plasmonics 50%
• Art Conservation 50%
• Sensor Technology 50%
• Arrhenius 50%
• Met Demand 50%
• Occupational Safety and Health 50%
• Sensing Behavior 50%
• Oxygen Dependence 50%
• H2 Dissociation 50%
• H2 Sensor 50%
• Safety Process 50%
• Next-generation Gas Sensors 50%
• Conventional Oxygen 50%
• Plasmonic Films 50%

Engineering

• Plasmonics 100%
• Dynamic Range 100%
• Nanocomposite thin films 100%
• Hydrogen 100%
• Process Control 66%
• Nanoparticle 33%
• Sensing Mechanisms 33%
• Detection Limit 33%
• Arrhenius 33%
• Peak Shift 33%
• Gas Sensor 33%
• Accident Prevention 33%

Material Science

• Thin Films 100%
• Nanocomposite 100%
• Process Control 100%
• Hydrogen 100%
• Film 50%
• Nanoparticle 50%
• Sensing Mechanisms 50%
• Gas Sensor 50%
• Protective Atmosphere 50%