Combined Experimental and Computational Study of Molybdenum and Niobium for Nuclear Sensor Application

Keyphrases

• Computational Study 100%
• Molybdenum 100%
• Sensor Applications 100%
• Niobium 100%
• Nuclear Sensor 100%
• Electromotive Force 80%
• Temperature Effect 40%
• Boltzmann Transport Equation 40%
• Structural Change 20%
• Thermal Properties 20%
• Heat Treatment 20%
• Density Functional Theory 20%
• Phosphorus P 20%
• Structure Optimization 20%
• Temperature Sensor 20%
• Sensor Materials 20%
• Ab Initio Molecular Dynamics 20%
• Seebeck 20%
• Computational Methods 20%
• Agreement with Experiments 20%
• Lanthanum 20%
• Nuclear Energy Applications 20%
• Pure Metals 20%
• Atomic Structure 20%
• Electromagnetic Properties 20%
• Dynamic Transport 20%
• Heat Ramp 20%
• Equation Method 20%
• Atomic Scale 20%

Chemistry

• Molybdenum 100%
• Niobium 100%
• Electromotive Force 80%
• Boltzmann Equation 40%
• Dioxygen 20%
• Molecular Dynamics 20%
• Heat Treatment 20%
• Lanthanum 20%
• Density Functional Theory 20%
• Nuclear Energy 20%
• Electromagnetic Property 20%

Material Science

• Molybdenum 100%
• Niobium 100%
• Application of Sensors 100%
• Thermal Property 20%
• Lanthanum 20%
• Density 20%
• Heat Treatment 20%
• Atomic Structure 20%
• Thermal Sensor 20%