Simulations of low-velocity impact on fibre metal lanimate

Keyphrases

• Energy Absorption 100%
• Low-velocity Impact 100%
• Fiber Metal 100%
• Mesh Density 66%
• Contact Force 66%
• Force-deflection 66%
• Fiber Metal Laminates 66%
• Glass Reinforced 66%
• Composite Materials 33%
• Mesh Size 33%
• Computational Efficiency 33%
• Failure Mode 33%
• Computational Accuracy 33%
• Damage Process 33%
• Composite Application 33%
• Response Process 33%
• User Material Subroutine 33%
• Aluminum Layer 33%
• Hybrid Composites 33%
• Impact Response 33%
• VUMAT 33%
• Impact Damage 33%
• Numerical Methodology 33%
• Aerospace Engineering 33%
• Marine Engineering 33%
• Flow Stress Behavior 33%
• Drop Weight 33%
• Popular 33%

Engineering

• Contact Force 100%
• Simulation Result 100%
• Absorbed Energy 100%
• Metal Fiber 100%
• Fibre Metal Laminate 100%
• Aerospace Engineering 50%
• Impact Response 50%
• Computational Efficiency 50%
• Stress Model 50%
• Flow Stress 50%
• Damage Process 50%
• Marine Engineering 50%
• Mesh Size 50%
• Failure Mode 50%
• Impact Damage 50%
• Composite Material 50%
• Hybrid Composite 50%

Material Science

• Density 100%
• Composite Material 50%
• Composite Material 50%
• Aluminum 50%