Biomechanical behavior of PMMA 3D printed biomimetic scaffolds: Effects of physiologically relevant environment

Keyphrases

• Poly(methyl methacrylate) 100%
• Physiologically Relevant 100%
• Biomimetic Scaffold 100%
• Biomechanical Behavior 100%
• 3D-printed Scaffold 100%
• Morphological Properties 75%
• Fluidics 50%
• Mechanical Response 50%
• Topological Classes 50%
• Compressive Properties 50%
• Cellular Structure 25%
• Mechanical Properties 25%
• Biomaterials 25%
• Porosity 25%
• Energy Storage 25%
• Mechanical Behavior 25%
• Distilled Water 25%
• Loading Conditions 25%
• Environmental Conditions 25%
• Trabecular Bone 25%
• Tissue Engineering 25%
• Response Properties 25%
• 3D Printing 25%
• Additive Manufacturing 25%
• Ambient Environment 25%
• Porous Scaffold 25%
• Geometric Properties 25%
• Flexural Stiffness 25%
• Bone Properties 25%
• Aerospace 25%
• In Vivo Performance 25%
• Environmental Dependence 25%
• Topological Group 25%
• Triply Periodic Minimal Surface 25%
• Meta-biomaterials 25%
• Morphological Groups 25%
• Compressive Loading 25%

Engineering

• Biomimetics 100%
• Porous Scaffold 100%
• Biomechanical Behavior 100%
• Mechanical Response 66%
• Fluidics 66%
• Mechanical Property 66%
• Printed Scaffold 66%
• Loading Condition 33%
• Energy Storage 33%
• Additive Manufacturing 33%
• Ambient Environment 33%
• Compressive Loading 33%
• Flexural Stiffness 33%
• Tissue Regeneration 33%
• Porosity 33%
• Three Dimensional Printing 33%
• Triply Periodic Minimal Surface 33%

Material Science

• Poly Methyl Methacrylate 100%
• Morphology 100%
• Mechanical Property 50%
• Biomaterial 50%
• Three Dimensional Printing 50%
• Fluidics 50%
• Cellular Structure 25%