Investigation of the energy absorption capacity of foam-filled 3D-printed glass fiber reinforced thermoplastic auxetic honeycomb structures

Keyphrases

• 3D Printing Technology 50%
• Analytical Method 50%
• Auxetic Honeycomb 100%
• Auxetic Property 50%
• Auxetic Structure 50%
• Continuous Fiber Reinforced Thermoplastics 50%
• Damage Growth 50%
• Design Envelope 50%
• Energy Absorption 50%
• Energy Absorption Capacity 100%
• Explicit Solver 50%
• Failure Envelope 50%
• Failure Load 50%
• Finite Element Analysis 50%
• Foam-filled 100%
• Fused Deposition Modeling 50%
• Glass Fiber Reinforced Thermoplastics 100%
• Hollow 50%
• Lattice Structure 50%
• Load-displacement 50%
• Maximum Stress Criterion 50%
• Mechanical Properties 50%
• Numerical Methods 50%
• Probabilistic Analysis 50%
• Quasi-static Compression 50%
• Strut Angle 50%
• Theoretical Formulation 50%

Engineering

• Absorbed Energy 50%
• Auxetic Structure 50%
• Compression Test 50%
• Continuous Fiber 50%
• Damage Growth 50%
• Energy Absorption Capacity 100%
• Envelope Design 50%
• Explicit Solver 50%
• Failure Envelope 50%
• Failure Load 50%
• Finite Element Analysis 50%
• Fused Deposition Modeling 50%
• Good Agreement 50%
• Honeycomb Structure 100%
• Maximum Stress Criterion 50%
• Three Dimensional Printing 50%

Material Science

• Analytical Method 50%
• Crystal Structure 50%
• Finite Element Method 50%
• Fused Filament Fabrication 50%
• Glass Fiber 100%
• Honeycomb Structure 100%
• Thermoplastics 100%