Nanoscale evaluation of multi-layer interfacial mechanical properties of sisal fiber reinforced composites by nanoindentation technique

Keyphrases

• Cell Wall Layer 33%
• Compressive Load 33%
• Crack Initiation 33%
• Crack Propagation 33%
• Elastic Modulus 33%
• Energy Dissipation 33%
• Epoxy Matrix 33%
• Failure Load 33%
• Fiber Cell Wall 33%
• Fiber-reinforced Composites 100%
• Fibre-reinforced Epoxy Composites 33%
• Fracture Mechanism 33%
• Interfacial Failure 33%
• Interfacial Mechanical Properties 100%
• Mechanical Properties 66%
• Multilayer Interface 100%
• Multilayer Structure 33%
• Nanoindentation Technique 100%
• Nanoscopic 33%
• Plant Fiber 33%
• Sisal Fiber 100%
• Transition Zone 66%
• Typical Plants 33%

Engineering

• Compressive Loading 33%
• Crack Initiation 33%
• Crack Propagation 33%
• Energy Dissipation 33%
• Epoxy Composite 33%
• Epoxy Matrix 33%
• Failure Load 33%
• Fiber-Reinforced Composite 100%
• Fracture Mechanism 33%
• Interfacial Layer 100%
• Laminate 33%
• Layer Interface 100%
• Modulus of Elasticity 33%
• Multiscale 33%
• Nanoscale 100%
• Plant Fibre 33%
• Sisal Fibre 100%

Material Science

• Composite Material 25%
• Crack Initiation 25%
• Crack Propagation 25%
• Elastic Moduli 25%
• Fiber-Reinforced Composite 100%
• Laminate 25%
• Multilayers 100%
• Nanoindentation 100%