Shape fidelity, mechanical and biological performance of 3D printed polycaprolactone-bioactive glass composite scaffolds

Keyphrases

• Mechanical Performance 100%
• Biological Performance 100%
• Bioactive Glass Composites 100%
• Polycaprolactone 100%
• Shape Fidelity 100%
• Composite Scaffold 100%
• Bioactive Glass 71%
• 3D Scaffold 42%
• Direct Ink Writing 42%
• Porosity 28%
• Finite Size 28%
• Pore Size 28%
• Mechanobiological 28%
• Mechanical Properties 14%
• In Situ 14%
• Biological Interactions 14%
• Customizable 14%
• Aspect Ratio 14%
• 3D Printing Technology 14%
• Nozzle 14%
• Porous Scaffold 14%
• Tissue Engineering Applications 14%
• Printing Parameters 14%
• Microstructural Properties 14%
• Scaffold Structure 14%
• Bioactive Glass Nanoparticles 14%
• Rheological Characterization 14%
• Biological Properties 14%
• Ink Formulation 14%
• Ink Deposition 14%
• Size Assessment 14%
• Controlled Pore Size 14%
• Extrusion-based 3D Printing 14%
• Designed Porosity 14%
• Scaffold Porosity 14%
• Writing Process 14%
• High Reproducibility 14%

INIS

• performance 100%
• glass 100%
• shape 100%
• inks 87%
• size 62%
• porosity 50%
• height 25%
• applications 25%
• layers 25%
• speed 25%
• interactions 12%
• engineering 12%
• microstructure 12%
• matrices 12%
• volume 12%
• particles 12%
• fabrication 12%
• assessments 12%
• tissues 12%
• width 12%
• geometry 12%
• deposition 12%
• additives 12%
• cylinders 12%
• aspect ratio 12%
• porous materials 12%
• 3d printing 12%
• extrusion 12%
• nozzles 12%

Material Science

• Bioglass 100%
• Ink 50%
• Pore Size 37%
• Direct Ink Writing 37%
• Three Dimensional Printing 12%
• Cylinder 12%
• Reproducibility 12%