Prediction of fiber orientation in short glass fiber polypropylene composites and the consequences for micromechanical simulations

Keyphrases

• Fiber Orientation 100%
• Fiber Orientation Distribution 100%
• Short Glass Fiber 100%
• Polypropylene Composites 100%
• Micromechanical Simulation 100%
• Fiber Length Distribution 40%
• Prediction Accuracy 40%
• Ultimate Failure 40%
• Orientation Fiber 40%
• Prediction Model 20%
• Micromechanics 20%
• Material Model 20%
• Simulation-based 20%
• Stiffness 20%
• Popular 20%
• Simulation Software 20%
• Mechanical Performance 20%
• Simulation Process 20%
• Structural Simulation 20%
• 2D to 3D 20%
• Order of Accuracy 20%
• Flow Front 20%
• Polymeric Materials 20%
• Model Validation 20%
• Gating Design 20%
• Short Fiber Reinforced 20%
• Simulation Chain 20%
• Potential Errors 20%
• Tensile Specimen 20%
• Autodesk Moldflow 20%
• Micromechanical Modeling 20%
• High-resolution Computed Tomography 20%
• Part Thickness 20%
• Virtual Component 20%
• Flow Part 20%
• Component Design 20%
• Part Complexity 20%
• Processing Simulation 20%
• Uniaxial Tension 20%
• Strength Failure 20%
• Damage Failure 20%
• Numerical Prediction 20%
• Composite Behavior 20%
• Part Design 20%
• Microstructure Characterization 20%
• Component Behavior 20%

Engineering

• Fiber Orientation 100%
• Fibre Orientation Distribution 100%
• Polypropylene Composite 100%
• Fibre Length 40%
• High Resolution 20%
• Microstructure 20%
• Mechanical Performance 20%
• Simulation Process 20%
• Flow Front 20%
• Simulation Software 20%
• Short Fiber 20%
• Accurate Prediction 20%
• Moldflow 20%
• Tensile Specimen 20%
• Micromechanics 20%
• Based Material Model 20%
• Part Design 20%
• Potential Error 20%
• Micromechanical Modeling 20%
• Numerical Prediction 20%

Material Science

• Glass Fiber 100%
• Polypropylene 100%
• Fiber Reinforced Material 100%
• Tomography 12%
• Process Simulation 12%
• Polymer 12%
• Microstructure Characterization 12%
• Micromechanics 12%