Tuning the elasticity of biopolymer gels for optimal wound healing

Keyphrases

• Adhesion Complex 20%
• Animal Cells 20%
• Astrocytes 40%
• Biopolymer Gels 100%
• Brain Cells 20%
• Cell Function 20%
• Cell Patterning 20%
• Cell Switching 20%
• Cellular Structure 20%
• Cytoskeletal Proteins 20%
• Endothelial Cells 20%
• Fibrin 60%
• Fibroblast Cells 20%
• Fibroblasts 20%
• Glial Cell Type 20%
• Integrin 20%
• Large Mesh 20%
• Linear Elasticity 20%
• Mechanical Characteristics 20%
• Melanoma Cells 20%
• Mesh Size 20%
• Morphological Changes 20%
• Natural Biopolymer 20%
• Neural Tissue 20%
• Neuronal Cell Survival 20%
• Neutrophils 20%
• Nonlinear Rheology 20%
• Phosphorylation State 20%
• Platelets 40%
• Polyacrylamide Gel 20%
• Polymer Network 20%
• Protein Assembly 20%
• Protein Expression 20%
• Protein Phosphorylation 20%
• Rat Brain 20%
• Rigid Substrate 20%
• Rigid Surface 20%
• Semiflexible Biopolymer 20%
• Soft Polymer 20%
• Stiffness 100%
• Stiffness Increase 20%
• Stiffness Sensing 20%
• Strain Stiffening 20%
• Substrate Stiffness 20%
• Wound Healing 100%

Engineering

• Adhesion Complex 33%
• Biopolymer 100%
• Dependent Stiffness 33%
• Larger Mesh 33%
• Linear Elasticity 33%
• Mesh Size 33%
• Morphologic 33%
• Natural Biopolymers 33%
• Network Polymer 33%
• Neutrophil 33%
• Platelet 66%
• Rheology 33%
• Rigid Surface 33%

Material Science

• Biopolymer 100%
• Elasticity 100%
• Fibroblast 50%
• Morphology 25%
• Platelet 50%
• Polymer Network 25%
• Rheology 25%