Composite Hydrogels Using Bioinspired Approach with in Situ Fast Gelation and Self-Healing Ability as Future Injectable Biomaterial

Keyphrases

• In Situ 100%
• Total Solid Content 100%
• Amino Acids 100%
• Physiological pH 100%
• Cross-linker 100%
• Composite Hydrogel 100%
• Water-soluble Derivatives 100%
• Bioinspired Approach 100%
• Self-healing Ability 100%
• Injectable Biomaterials 100%
• Rapid Gelation 100%
• Chitosan 50%
• Differential Scanning Calorimetry 50%
• Biopolymers 50%
• Biocompatibility 50%
• X Ray Diffraction 50%
• Polyethylene Glycol 50%
• Biodegradability 50%
• Glutamic Acid 50%
• Zwitterion 50%
• Crystalline-amorphous 50%
• Crystal Morphology 50%
• Phosphate-buffered Saline 50%
• Cell Viability 50%
• Elastic Behavior 50%
• Low Water Solubility 50%
• Water-soluble 50%
• Coupling Reaction 50%
• Benzaldehyde 50%
• Polymer Backbone 50%
• Cross-linkers Concentration 50%
• Incubation Period 50%
• Degree of Substitution 50%
• Chitosan Biopolymer 50%
• 1-ethyl-3-(3-dimethylaminopropyl)carbodiimide 50%
• WI-38 50%
• Fibroblast Cell Line 50%
• Reagent Ratio 50%
• Biocompatible Hydrogel 50%
• Compressive Modulus 50%
• Carbodiimide Chemistry 50%

Pharmacology, Toxicology and Pharmaceutical Science

• Amino Acid 100%
• Biopolymer 100%
• Chitosan 100%
• Biomaterial 100%
• Incubation Time 50%
• Macrogol 50%
• Differential Scanning Calorimetry 50%
• Cell Viability 50%
• Glutamic Acid 50%
• Benzaldehyde 50%
• 1 (3 Dimethylaminopropyl) 3 Ethylcarbodiimide 50%
• Zwitterion 50%
• Phosphate Buffered Saline 50%
• Macrogol Derivative 50%

Material Science

• Glutamic Acid 16%