Computational homogenization of bio-inspired metamaterial with a random fiber network microstructure

Keyphrases

• Extracellular Matrix 100%
• Metamaterials 100%
• Bio-inspired 100%
• Elastic Properties 100%
• Computational Homogenization 100%
• Representative Volumetric Element 100%
• Random Fiber Networks 100%
• Network Microstructure 100%
• Biomaterials 50%
• Simulation Experiment 50%
• Two Dimensional 50%
• Lab Experiment 50%
• Stress-strain Relationship 50%
• Uniaxial 50%
• Additive Manufacturing 50%
• Distributed Elements 50%
• Cell-cell Communication 50%
• Elastic Modulus 50%
• Continuum Model 50%
• Randomly Distributed 50%
• Fiber Network 50%
• Mutually Orthogonal 50%
• Discrete Model 50%
• Computational Simulation 50%
• Orthogonal Directions 50%
• Effective Elastic Properties 50%
• Homogenization Method 50%
• Ogden Model 50%
• Fiber Properties 50%
• Biological Media 50%
• Stress Calculation 50%
• Complex Microstructure 50%
• Random Fibers 50%
• Network Reconfiguration 50%
• Microscopic Effect 50%
• Hyperelastic Model 50%
• Random Material 50%

Engineering

• Microstructure 100%
• Computational Homogenisation 100%
• Continuum Model 50%
• Two Dimensional 50%
• Additive Manufacturing 50%
• Young's Modulus 50%
• Stress-Strain Relations 50%
• Modulus Value 50%
• Discrete Model 50%
• Ogden Model 50%
• Reconfiguration 50%
• Hyperelastic Model 50%

Material Science

• Elastic Property 100%
• Metamaterial 100%
• Homogenization 100%
• Three Dimensional Printing 33%
• Elastic Moduli 33%
• Stress-Strain Relations 33%