The effects of interlayered carbon nanotube reinforced electrospun nanofibers on mixed mode fracture characteristics

Keyphrases

• Carbon Fiber Prepreg 50%
• Carbon Nanotube Reinforcement 100%
• CNT Network 50%
• CNT-reinforced 50%
• Crack Propagation 100%
• Delamination 50%
• Delamination Mechanism 50%
• Electrospinning Technique 50%
• Electrospun Mats 100%
• Electrospun Nanofibers 100%
• Energy Dissipation 50%
• Fractography 50%
• Fracture Characteristics 100%
• Interface Region 50%
• Interface Structure 50%
• Interlaminar Fracture Toughness 50%
• Interlaminar Properties 50%
• Irregular Load 50%
• Laminate Thickness 50%
• Laminated Composites 100%
• Layer Separation 50%
• Linear Load 50%
• Load Drop 50%
• Load Increase 50%
• Loading Conditions 50%
• Mechanical Properties 50%
• Mid-plane 50%
• Mixed-mode Delamination 50%
• Mixed-mode Fracture 100%
• Nanofiber Mat 50%
• Nanofibers 100%
• Nonlinear Load 50%
• Polyvinyl 50%
• Reinforced Composites 50%
• Retardation 50%
• Stiffness 50%
• Weight Fraction 50%
• Weight Penalty 50%

Engineering

• Carbon Nanotube 100%
• Crack Propagation 66%
• Delamination 33%
• Electrospinning Method 33%
• Electrospun 66%
• Electrospun Nanofibers 100%
• Energy Dissipation 33%
• Fractography 33%
• Fracture Behavior 100%
• Fracture Strength 33%
• Interlayer 33%
• Laminate Thickness 33%
• Layer Separation 33%
• Linear Load 33%
• Loading Condition 33%
• Mixed Mode 33%
• Mixed Mode Fracture 100%
• Mode Delamination 33%
• Nanofiber 66%
• Nanofibrous Mat 100%
• Retardation 33%

Material Science

• Carbon Fiber 25%
• Carbon Nanotube 100%
• Crack Propagation 50%
• Delamination 50%
• Electrospinning 25%
• Fractography 25%
• Fracture Behavior 100%
• Fracture Toughness 25%
• Interface Structure 25%
• Laminated Composite 50%
• Mixed Mode Fracture 100%
• Nanofiber 100%
• Prepreg 25%
• Reinforced Composite 25%