Use of natural coralline biomaterials as reinforcing and gas-forming agent for developing novel hybrid biomatrices: Microarchitectural and mechanical studies

Keyphrases

• Biomaterials 100%
• Microarchitecture 100%
• Biomatrix 100%
• Novel Hybrids 100%
• Mechanical Studies 100%
• Coralline 100%
• Gas Forming Agents 100%
• Particulate 27%
• Pore Size 18%
• Chitosan-based Scaffold 18%
• Scanning Electron Microscope 18%
• Chitosan 18%
• Chitosan Polymer 18%
• Carbonate 9%
• Mechanical Properties 9%
• Physical Properties 9%
• Phase Forming 9%
• Biological Properties 9%
• Coral 9%
• Three-dimensional (3D) 9%
• Compression Testing 9%
• Cell Behavior 9%
• Porosity 9%
• Weight Ratio 9%
• Cell Attachment 9%
• Carbon Dioxide 9%
• Bone Marrow Cells 9%
• Imaging Testing 9%
• Polymeric Structure 9%
• Large Pore 9%
• High Modulus 9%
• Phase Separation Technique 9%
• Average Pore Size 9%
• Large Pore Formation 9%
• Cell Affinity 9%
• Cell-material Interactions 9%
• Thermally Induced Phase Separation 9%
• Compressive Modulus 9%
• Micro-CT Imaging 9%
• Scaffold Microstructure 9%
• Morphological Observation 9%
• Cell Spreading 9%
• Cell Culturing 9%
• Polymer Ratio 9%
• Improved Mechanical Properties 9%
• Macroporous Composites 9%
• Reinforcing Phase 9%
• Pore Wall Thickness 9%
• Cell Culture Experiment 9%
• Size Limit 9%

Engineering

• Scanning Electron Microscope 100%
• Phase Separation 50%
• Porosity 50%
• Atmospheric Aerosol 50%
• Polymeric Structure 50%
• Compressive Modulus 50%
• Average Pore Size 50%
• Material Interaction 50%
• Compression Testing 50%
• Marrow Cell 50%
• Reinforcing Phase 50%
• Biological Property 50%

Material Science

• Biomaterial 100%
• Pore Size 100%
• Scanning Electron Microscopy 66%
• Carbon Dioxide 33%
• Morphology 33%
• Physical Property 33%
• Compression Testing 33%