Small Caliber Compliant Vascular Grafts Based on Elastin-Like Recombinamers for in situ Tissue Engineering

Keyphrases

• Elastin 100%
• Small Caliber 100%
• Vascular Graft 100%
• Recombinamer 100%
• Cell Ingrowth 100%
• Biological Tissue Engineering 100%
• Elastin-like 100%
• Occlusion 50%
• Tissue Engineered Vascular Graft 50%
• Endothelium 50%
• Bypass Graft 50%
• Biomaterials 50%
• Electrospun 50%
• Range of Values 50%
• Suboptimal Performance 50%
• Layer Thickness 50%
• Thrombus Formation 50%
• Coronary Artery 50%
• Vascular Disease 50%
• Hybrid System 50%
• Structural Stability 50%
• Elastic Behavior 50%
• Textile 50%
• Limited Availability 50%
• Improved Control 50%
• Graft Failure 50%
• 3D Architecture 50%
• Dilatation 50%
• Advanced Materials 50%
• Leading Causes of Death 50%
• Macroporous 50%
• Supporting Cells 50%
• Technical Textiles 50%
• Surgical Options 50%
• Advanced Manufacturing 50%
• Extracellular Matrix Deposition 50%
• Fabrication Strategies 50%
• Click-iT 50%
• Bioartificial Organs 50%
• Hemocompatible 50%
• Burst Strength 50%
• Warp-knitted Mesh 50%
• Tissue-engineered Graft 50%
• Suture Retention 50%
• Vascular Implants 50%
• Nonthrombogenicity 50%
• Electrospun Mesh 50%
• Endogenous Tissue Restoration 50%
• Stemless Implant 50%
• Compliance Error 50%

Engineering

• Grafts 100%
• Tissue Regeneration 100%
• Limitations 28%
• Electrospun 28%
• Implant 28%
• Layer Thickness 14%
• Structural Stability 14%
• Technical Textile 14%
• Free Cell 14%
• Prosthetics 14%
• Native Vessel 14%
• Support Cell 14%

Material Science

• Elastin 100%
• Elastic Behavior 25%
• Advanced Material 25%
• Prosthetics 25%
• Bioinspired Material 25%