Formulation and characterization of a porous, elastomeric biomaterial for vocal fold tissue engineering research

Keyphrases

• Applied Frequency 25%
• Biomaterials 100%
• Cell Response 25%
• Cell Seeding 25%
• Dynamic Mechanical Analysis 25%
• Engineering Research 100%
• In Vitro Investigation 25%
• In Vitro Model 25%
• In Vitro Research 25%
• Laboratory Equipment 25%
• Linear Function 25%
• Mass Concentration 75%
• Mechanical Properties 50%
• Mechanical Scanning 25%
• Mechanical Tunability 25%
• Mercury Intrusion Porosimetry 25%
• Microenvironment 25%
• Molecular Response 25%
• Percentage Porosity 25%
• Polyether Polyurethane 100%
• Polyurethane Matrix 50%
• Pore Architecture 25%
• Rheology 25%
• Scanning Electron Microscopy 25%
• Shear Loss Modulus 25%
• Shear Storage Modulus 25%
• Storage Modulus 25%
• Three-dimensional (3D) 25%
• Tissue Engineering 100%
• Viscoelastic Properties 25%
• Vocal Fold 100%

Engineering

• Applied Frequency 25%
• Dynamic Mechanical Analysis 25%
• Engineering Research 100%
• Linear Function 25%
• Loss Modulus 25%
• Mass Concentration 75%
• Mercury Intrusion Porosimetry 25%
• Microenvironments 25%
• Polyurethan 100%
• Pore Diameter 25%
• Porosity 25%
• Rheology 25%
• Storage Modulus 50%
• Tissue Engineering 100%

Material Science

• Biomaterial 100%
• Dynamic Mechanical Analysis 25%
• Elastic Moduli 50%
• Polyurethane 100%
• Porosimetry 25%
• Rheology 25%
• Scanning Electron Microscopy 25%