In vitro comparison of novel polyurethane aortic valves and homografts after seeding and conditioning

Keyphrases

• Polyurethane 100%
• Aortic Valve 100%
• Extracellular Matrix 100%
• Aortic Homograft 100%
• In Vitro Comparison 100%
• Endothelial Cells 33%
• Scanning Electron Microscopy 33%
• Confluent Cell Layers 33%
• Bioreactor 33%
• Shear Stress 33%
• Biocompatibility 33%
• Endothelialization 33%
• Human Endothelial Cells 33%
• Inflammatory Response 33%
• Quantitative PCR 33%
• Immunohistochemical Analysis 33%
• Fibroblasts 33%
• Inflammatory Gene Expression 33%
• High-level Expression 33%
• Inflammatory Cells 33%
• Cellular Response 33%
• Inner Surface 33%
• Pulsatile Flow 33%
• Low Flow 33%
• Conditioning Time 33%
• Human Fibroblast Cells 33%
• Homograft 33%
• Aortic Valve Replacement 33%
• Valve Group 33%
• Synthetic Scaffold 33%
• Dynamic Bioreactor 33%
• Homograft Valve 33%
• Cell Adaption 33%
• Seeding Device 33%
• Flow Conditioning 33%
• Further Analysis 33%

Medicine and Dentistry

• Polyurethan 100%
• Conditioning 100%
• In Vitro 100%
• Aortic Valve 100%
• Aortic Graft 100%
• Extracellular Matrix 42%
• Endothelial Cell 28%
• Fibroblast 28%
• Scanning Electron Microscopy 14%
• Serositis 14%
• Real Time Polymerase Chain Reaction 14%
• Gene Expression 14%
• Allograft 14%
• Inflammatory Cell 14%
• Biocompatibility 14%
• Aortic Valve Replacement 14%
• Pulsatile Flow 14%

Chemical Engineering

• Polyurethane 100%
• Biochemical Reactor 66%