Self-healing in fiber-reinforced polymer composites via bioinspired microvascular networks

Keyphrases

• 2D Woven 50%
• Beam Geometry 50%
• Bio-inspired 100%
• Biomimetic 50%
• Chemical Gases 50%
• Chemical Reaction 50%
• Commercially Available 50%
• Composite Materials 50%
• Crack Propagation 50%
• Damage Resilience 50%
• Delamination 50%
• Double Cantilever Beam 50%
• Double Cantilever Beam Specimen 100%
• E-glass 50%
• Epoxy 50%
• Fiber-reinforced Composites 50%
• Fiber-reinforced Polymer Composites 100%
• Fluid Circulation 50%
• Fracture Toughness 50%
• Gas Absorption 50%
• Glass Composite 50%
• Healing 100%
• Healing Agent 100%
• In Situ 50%
• Interply 50%
• Magnetic Field Modulation 50%
• Mechanical Testing 50%
• Microvascular Network 100%
• Non-stoichiometric 50%
• Polymer Materials 50%
• Polymerization Reaction 50%
• Polymerized 50%
• Room Temperature 50%
• Self-healing 100%
• Self-healing Chemistry 50%
• Self-healing Composites 50%
• Self-healing Strategy 50%
• Separation Channel 50%
• Simple Fluids 50%
• Strategies for Improvement 50%
• Structural Materials 50%
• Thermal Regulation 50%
• Vascularized 50%
• Woven Fiber 50%

Material Science

• Building Material 50%
• Composite Material 50%
• Crack Propagation 50%
• Delamination 50%
• Fiber Reinforced Material 50%
• Fracture Toughness 50%
• Mechanical Testing 50%
• Polymer Composite 100%
• Polymerization 50%
• Reinforced Plastic 100%