Computational modeling of flow-induced shear stresses within 3D salt-leached porous scaffolds imaged via micro-CT

Keyphrases

• Computational Modeling 100%
• Surface Stress 100%
• Microcomputed Tomography 100%
• Porous Scaffold 100%
• Shear Stress Distribution 100%
• Leech 100%
• Flow Shear Stress 100%
• Imaging Model 50%
• Tissue Engineering 50%
• Manufacturing Methods 50%
• Shear Force 50%
• Internal Structure 50%
• Manufacturing Parameters 50%
• Modeling Approach 50%
• 3D Structure 50%
• 3D Scaffold 50%
• Probability Density Function 50%
• Polymer System 50%
• Flow Stress 50%
• Porosity 50%
• Lattice Boltzmann Method 50%
• Stress Distribution 50%
• High Stress 50%
• Local Shear 50%
• Osteogenic Medium 50%
• High-resolution Micro-computed Tomography 50%
• Flow Perfusion 50%
• Skewness 50%
• Poly(L-lactic acid) 50%
• Geometric Characteristics 50%
• Surface Shear Stress 50%
• Preosteoblast Cells 50%
• Average Pore Size 50%
• Long Tail 50%
• Scaffold Manufacturing 50%
• Analytical Estimation 50%
• Manufacturing Defects 50%
• High Flow 50%
• Continuous Flow 50%

Engineering

• Porous Scaffold 100%
• Defects 66%
• Shear Stress Distribution 66%
• Tissue Engineering 33%
• High Resolution 33%
• Manufacturing Technique 33%
• Shear Force 33%
• Porosity 33%
• Primary Goal 33%
• Probability Density Function 33%
• Polymer System 33%
• Lattice-Boltzmann Method 33%
• Internal Structure 33%
• Flow Stress 33%
• Average Pore Size 33%
• Seeded Cell 33%