Surface modification of three-dimensional Ca-P/PHBV nanocomposite scaffolds by physical entrapment of gelatin and its in vitro biological evaluation

Keyphrases

• Three-dimensional (3D) 100%
• Calcium Phosphate 100%
• Gelatin 100%
• Surface Modification 100%
• In Vitro Evaluation 100%
• Nanocomposite Scaffold 100%
• Physical Entrapment 100%
• Mechanical Properties 40%
• Hydrophilicity 40%
• Porosity 40%
• Cell Proliferation 20%
• Cellular Response 20%
• Compressive Strength 20%
• Surface Morphology 20%
• Reaction Time 20%
• Young's Modulus 20%
• Osteoblast Cells 20%
• Bone Regeneration 20%
• MTT Assay 20%
• Morphological Properties 20%
• Mechanical Surface 20%
• Surface Properties 20%
• Rapid Prototyping 20%
• Saos-2 20%
• Bone Tissue Engineering Scaffold 20%
• Saos-2 Cells 20%
• Solvent Composition 20%
• Calcium Phosphate Nanoparticles 20%

Engineering

• Nanocomposite 100%
• Hydrophilicity 66%
• Porosity 66%
• Compressive Strength 33%
• Nanoparticle 33%
• Surface Morphology 33%
• Young's Modulus 33%
• Modified Surface 33%
• Cellular Response 33%
• Bone Tissue Engineering 33%
• Engineering Scaffold 33%
• Rapid Prototyping 33%

Material Science

• Surface Treatment 100%
• Nanocomposites 100%
• Nanoparticle 20%
• Surface Morphology 20%
• Young's Modulus 20%
• Cell Proliferation 20%
• Compressive Strength 20%
• Surface Property 20%
• Osteoblast 20%
• Rapid Prototyping 20%