Lattice design and 3D-printing of PEEK with Ca₁₀(OH)(PO₄)₃ and in-vitro bio-composite for bone implant

Keyphrases

• 3D Printing 100%
• Polyetheretherketone 100%
• Bone Implants 100%
• Lattice Design 100%
• CA10 100%
• Calcium Hydroxyapatite 70%
• Hydroxyapatite Composite 20%
• Osseointegration 20%
• Treatment Strategy 10%
• Mechanical Behavior 10%
• Mechanical Performance 10%
• Biomaterials 10%
• Differential Scanning Calorimetry 10%
• Modeling Method 10%
• Porosity 10%
• Biological Activity 10%
• Bioactive 10%
• Flexion 10%
• Bioactivity 10%
• Apatite 10%
• X Ray Diffraction 10%
• Surface Coating 10%
• Mechanical Testing 10%
• Dynamic Mechanical Analysis 10%
• Morphology Effect 10%
• Biological Behavior 10%
• Surface Treatment 10%
• Degree of Crystallinity 10%
• Simulated Body Fluid 10%
• Additive Manufacturing 10%
• Surface Biocompatibility 10%
• Fused Deposition Modeling 10%
• Bone-implant Interface 10%
• Residual Polymer 10%
• Microporous Scaffolds 10%
• Implant Osseointegration 10%
• Thermal Dynamics 10%
• Hydroxyapatite Coating 10%

Engineering

• Polyetheretherketone 100%
• Bone Implant 100%
• Biocomposite 100%
• Poly Ether Ether Ketone 100%
• Three Dimensional Printing 100%
• Bioactivity 20%
• Mechanical Performance 10%
• Crystallinity 10%
• Implant 10%
• Ray Diffraction 10%
• Nanocomposite 10%
• Surface Coating 10%
• Additive Manufacturing 10%
• Fused Deposition Modeling 10%
• Implant Interface 10%
• Porosity 10%
• Dynamic Mechanical Analysis 10%

Material Science

• Three Dimensional Printing 100%
• Polyetheretherketone 100%
• Biocompatibility 10%
• Morphology 10%
• Biomaterial 10%
• X-Ray Diffraction 10%
• Differential Scanning Calorimetry 10%
• Surface Coating 10%
• Mechanical Testing 10%
• Body Fluid 10%
• Fused Filament Fabrication 10%
• Dynamic Mechanical Analysis 10%
• Nanocomposite 10%