Evaluation of mechanical properties, biodegradability and bioactivity of forsteritediopside scaffolds coated by polycaprolacton fumarate

Keyphrases

• Mechanical Properties 100%
• Bioactivity 100%
• Biodegradability 100%
• Diopside 100%
• Fumarate 100%
• Forsterite 75%
• Bone Tissue Engineering 75%
• Sodium Chloride 50%
• Compressive Strength 50%
• Nanopowder 50%
• Porous Scaffold 50%
• SEM Micrographs 50%
• Three-dimensional (3D) 25%
• Negligible Effects 25%
• Porosity 25%
• Sol-gel Method 25%
• Powder Mixture 25%
• Mechanical Activation 25%
• Uniaxial Compression 25%
• Tissue Engineering Applications 25%
• Space Holder 25%
• Weight Percentage 25%
• Apatite 25%
• Highly Porous 25%
• Polymer Coating 25%
• Biological Properties 25%
• Polycaprolactone 25%
• Pore Morphology 25%
• Physical-mechanical Properties 25%
• Multicomponent Structures 25%
• Agglomerates 25%
• Porous Structure 25%
• Interconnected Pores 25%
• Cross-linked Structure 25%
• Synthetic Scaffold 25%
• Bone-like 25%

Engineering

• Bone Tissue Engineering 100%
• Porous Scaffold 100%
• Micrograph 100%
• Nanopowder 100%
• Bioactivity 100%
• Compression Strength 100%
• Compressive Strength 100%
• Sol-Gel Process 50%
• Powder Mixture 50%
• Caprolactone 50%
• Negligible Effect 50%
• Porous Structure 50%
• Biological Property 50%
• Porosity 50%
• Archimedes Principle 50%
• Bone Tissue Engineering Application 50%

Material Science

• Sodium 100%
• Scanning Electron Microscopy 100%
• Compressive Strength 100%
• Nanopowder 100%
• Sol-Gel 50%
• Mechanical Activation 50%
• Polymer Coating 50%
• Composite Material 50%