Thermal Contact Conductivity Prediction with Grey Box Model and Experimental Validation for an Axial Flux Motor

Keyphrases

• 3D Thermal Model 33%
• Advanced Structures 33%
• Armature 66%
• Axial Flux Motor 100%
• Axial Flux Permanent Magnet Synchronous Machine (AFPMSM) 33%
• Axial Length 33%
• Box Theory 33%
• Conductivity Prediction 100%
• Contact Region 66%
• Contact Surface 33%
• Contact Thermal Conductivity 33%
• Efficiency Increase 33%
• Encapsulation Materials 33%
• Equivalent Thermal Conductivity 33%
• Experimental Validation 100%
• Genetic Algorism 33%
• Grey-box 66%
• Grey-box Model 100%
• Heat Capacity 33%
• High Torque Density 33%
• Interface Pressure 33%
• Material Characteristics 33%
• Material Component 33%
• Metallic Mixtures 33%
• Mixture Material 33%
• Model Validation 100%
• Motor Topology 33%
• Multiple Materials 33%
• Non-metallic 33%
• Sector Model 66%
• Segmented Armature 33%
• Testing Rig 33%
• Thermal Behavior 33%
• Thermal Conductivity 33%
• Thermal Contact Conductivity 100%
• Thermal Heat 33%
• Thermal Model 33%
• Thermal Performance Prediction 33%
• Yokeless 33%

Engineering

• Box Model 100%
• Contact Region 66%
• Contact Surface 33%
• Heat Capacity 33%
• Interface Pressure 33%
• Material Characteristic 33%
• Material Component 33%
• Multiple Material 33%
• Performance Prediction 33%
• Permanent Magnet Synchronous Motor 33%
• Testing Rig 33%
• Thermal Behavior 33%
• Thermal Conductivity 100%
• Thermal Model 66%
• Thermal Performance 33%

Material Science

• Density 33%
• Thermal Conductivity 100%