Coupled thermal-structural modelling and experimental validation of spiral mandrel die

Keyphrases

• Experimental Validation 100%
• Model Validation 100%
• Coupled Thermal 100%
• Structural Modeling 100%
• Spiral Mandrel Die 100%
• Thermal-structural 100%
• Polymer Melt 66%
• Flow Channel 66%
• Temperature Load 66%
• Mechanical Properties 33%
• Mechanical Performance 33%
• Severe Disease 33%
• Theoretical Method 33%
• Thermal Analysis 33%
• Finite Element Method 33%
• Processing Parameters 33%
• Stress Distribution 33%
• Flow Characteristics 33%
• Numerical Model 33%
• High Pressure 33%
• Geometrical Features 33%
• Mapping Algorithm 33%
• Orifice 33%
• Modeling Framework 33%
• Structure Parameters 33%
• Stress State 33%
• Thermal Load 33%
• Induced Deformation 33%
• Extrusion Die 33%
• Spiral Groove 33%
• Deformation State 33%
• Mandrel Parameters 33%
• Pressure-induced 33%
• Spiral Mandrel 33%
• Maximum Stress 33%
• Maximum Pressure 33%
• Pressure Load 33%
• Load Pressure 33%
• Surface Mapping 33%
• Deformation Distribution 33%
• Simulated Flow 33%
• Steady-state Thermal Analysis 33%

Engineering

• Flow Channel 100%
• Mechanical Performance 50%
• Finite Element Method 50%
• Theoretical Method 50%
• Processing Parameter 50%
• Numerical Model 50%
• Flow Characteristics 50%
• Thermal State 50%
• Stress State 50%
• Orifice 50%
• Thermal Load 50%
• Induced Deformation 50%
• Extrusion Dies 50%
• Pressure Load 50%
• Deformation State 50%
• Maximum Stress 50%
• Spiral Groove 50%

Material Science

• Thermal Analysis 100%
• Polymer Melt 100%
• Finite Element Method 50%
• Orifice 50%
• Thermal Load 50%