Prediction of process induced shape distortions and residual stresses in large fibre reinforced composite laminates: With application to Wind Turbine Blades

Engineering

• Residual Stress 100%
• Wind Turbine 100%
• Fiber-Reinforced Composite 100%
• Composite Part 50%
• Modeling Manufacturing 50%
• Experimental Result 25%
• Wind Power 25%
• Fibre Reinforced Polymer 25%
• Processing Parameter 25%
• Blade Root 25%
• Constitutive Modeling 25%
• Subsection 25%
• Mould Insert 25%
• 1D Model 25%
• Limiting Case 25%
• Fibre Bragg Grating Sensor 25%
• Cure Hardening Instantaneous Linear Elastic Approach 25%
• Embedded Fiber 25%
• Resin Transfer Molding 25%
• Matrix Material 25%
• Main Application 25%
• Material Layer 25%
• Internal Heat Generation 25%
• Thick Section 25%
• Cure Shrinkage 25%
• Internals 25%
• Numerical Modeling 25%
• Finite Element Modeling 25%
• Void Growth 25%
• Composite Material 25%
• Plane Strain 25%
• Polymer Matrix 25%
• Polymer Matrix Composite 25%
• Viscoelasticity 25%

Material Science

• Composite Laminate 100%
• Fiber-Reinforced Composite 100%
• Residual Stress 100%
• Reinforced Plastic 50%
• Fiber Bragg Grating 25%
• Finite Difference 25%
• Matrix Composite 25%
• Polymer Matrix 25%
• Thermoset Composite 25%
• Mechanical Property 25%
• Composite Material 25%
• Finite Element Modeling 25%
• Void Growth 25%
• Constitutive Modeling 25%
• Thermal Expansion 25%
• Viscoelasticity 25%
• Resin Transfer Molding 25%

Keyphrases

• Fiber-reinforced Composite Laminates 100%
• Internal Heat Generation 20%
• Void Growth Model 20%
• Chemical Cure Shrinkage 20%
• In-plane Strain 20%
• Vacuum Assisted Resin Transfer Molding (VARTM) 20%
• Courtesy 20%
• Thermo-mechanical Finite Element Model 20%
• Tooling Constraints 20%
• Thermomechanical Phenomena 20%
• Composite Tooling 20%