Effect of the reduced graphene oxide (rGO) compaction degree and concentration on rGO-polymer composite printability and cell interactions

Keyphrases

• Reduced Graphene Oxide 100%
• Cell Interaction 100%
• Polymer Composites 100%
• Printability 100%
• Degree of Compaction 100%
• Bulk Density 26%
• Acetone 15%
• Volume Fraction 10%
• Electrical Properties 10%
• Electrical Conductivity 10%
• Melt Compounding 10%
• Osteogenic Differentiation 5%
• Human Mesenchymal Stem Cells (hMSCs) 5%
• Low Volume 5%
• Production Methods 5%
• Further Processing 5%
• 3D Scaffold 5%
• Tissue Engineering Applications 5%
• Bone Tissue Engineering 5%
• Antimicrobial Properties 5%
• Thermal Stability 5%
• Densification 5%
• Dispersibility 5%
• Protein Adsorption 5%
• Large-scale Production 5%
• Oxide Particles 5%
• Graphene-based Materials 5%
• Twin-screw Extrusion 5%
• Graphene Oxide Dispersion 5%
• High Densification 5%
• High-bulk 5%
• Low Bulk Density 5%
• Thermoelectric Properties 5%
• Particle Interactions 5%
• Oxide Content 5%
• Interlayer Bonding 5%
• Graphene Derivatives 5%
• Extrusion System 5%
• Enhanced Electrical Conductivity 5%
• Cell-material Interactions 5%
• Hydrophilic Composites 5%

INIS

• concentration 100%
• interactions 100%
• polymers 100%
• graphene 100%
• oxides 100%
• bulk density 28%
• acetone 14%
• electrical conductivity 14%
• volume 9%
• water 9%
• solvents 9%
• electrical properties 9%
• applications 4%
• increasing 4%
• humans 4%
• production 4%
• viability 4%
• proteins 4%
• weight 4%
• processing 4%
• screws 4%
• stability 4%
• layers 4%
• bonding 4%
• dispersions 4%
• balances 4%
• proliferation 4%
• engineering 4%
• fillers 4%
• bone tissues 4%
• extrusion 4%
• adsorption 4%
• particle interactions 4%

Material Science

• Polymer Composite 100%
• Reduced Graphene Oxide 100%
• Density 31%
• Electrical Conductivity 15%
• Graphene 10%
• Volume Fraction 10%
• Oxide Particle 5%
• Thermal Stability 5%