Fluid-structure interaction modeling for fatigue-damage prediction in full-scale wind-turbine blades

Keyphrases

• Coupled Fluid-structure Interaction 100%
• Fluid-structure Interaction 100%
• Wind Turbine Blade 100%
• Fatigue Damage Model 100%
• Fatigue Damage Assessment 100%
• Structure Fatigue 100%
• Computational Methods 50%
• Fiber-reinforced Composites 50%
• Finite Element 50%
• Fatigue Damage 50%
• Element-by-element 50%
• Aerodynamics 50%
• Free Rotation 50%
• Damage Initiation 50%
• Multiscale Method 50%
• Navier-Stokes Equations 50%
• Damage Progression 50%
• Wind Speed 50%
• Incompressible Flow 50%
• Wind Turbine 50%
• Sandia 50%
• Variational multiscale Method 50%
• Interaction Framework 50%
• Numerical Methodology 50%
• Arbitrary Lagrangian-Eulerian 50%
• Fatigue Damage Evolution 50%
• Blade Structure 50%
• Rotor Speed 50%
• Composite Blade 50%
• Isogeometric 50%
• CX-100 50%
• Multilayer Fibers 50%

Engineering

• Fluid-Structure Interaction 100%
• Full Scale 100%
• Fatigue Damage 100%
• Compressed Air Motors 100%
• Damage Model 40%
• Multiscale 20%
• Fiber-Reinforced Composite 20%
• Progression 20%
• Damage Evolution 20%
• Damage Initiation 20%
• Incompressible Flow 20%
• Rotor Speed 20%
• Finite Element Analysis 20%
• Aerodynamics 20%
• Navier-Stokes Equation 20%