The development of a tissue-engineered tracheobronchial epithelial model using a bilayered collagen-hyaluronate scaffold

Keyphrases

• Collagen 100%
• Bi-layered 100%
• Tracheobronchial 100%
• Sodium Hyaluronate 100%
• Tissue-engineered 100%
• Film Layer 66%
• Quantitative PCR 33%
• Cell Differentiation 33%
• Drug Delivery 33%
• Drug Discovery 33%
• Co-culture Model 33%
• Histological Analysis 33%
• Tissue-engineered Constructs 33%
• Freezing Temperature 33%
• Lyophilization 33%
• In Vitro Model 33%
• Epithelial Cell Line 33%
• Tight Junction 33%
• Immunofluorescence 33%
• In Vitro Model System 33%
• Epithelial Monolayer 33%
• Ex Vivo Tissues 33%
• Delamination 33%
• Tissue Architecture 33%
• Lung Fibroblasts 33%
• Submucosal 33%
• WI-38 33%
• Upper Respiratory Tract 33%
• Culture Organization 33%
• Epithelial Tissue 33%
• Culture in Vitro 33%
• Bronchial Epithelial Cells 33%
• Compressive Modulus 33%
• Cellular Organization 33%
• Epithelial Dysfunction 33%
• Mean Pore Diameter 33%
• Mucin Expression 33%
• 3D in Vitro Models 33%
• Chronic Respiratory Diseases 33%
• Ciliation 33%
• Causes of Mortality 33%

Medicine and Dentistry

• In Vitro 100%
• Engineered Tissue 100%
• Restylane 100%
• Cell Differentiation 33%
• Pathophysiology 33%
• Quantitative Reverse Transcription Polymerase Chain Reaction 33%
• Tight Junction 33%
• Epithelial Cell Line 33%
• Immunofluorescence 33%
• Upper Respiratory Tract 33%
• Mucin 33%
• Lung Fibroblast 33%
• Chronic Respiratory Tract Disease 33%
• Diseases 33%
• Epithelium 33%

Pharmacology, Toxicology and Pharmaceutical Science

• Hyaluronic Acid 100%
• Drug Discovery 50%
• Respiratory Tract 50%
• Mucin 50%
• Chronic Respiratory Tract Disease 50%
• Pathophysiology 50%
• Diseases 50%