Strain-rate Dependence of Electrically Modified Unidirectional Carbon/epoxy Laminates Under In-plane Tensile Loading

Keyphrases

• Carbon-epoxy Laminate 100%
• Tensile Loading 100%
• Strain Rate Dependence 100%
• Tensile Modulus 50%
• Laminated System 50%
• In-plane Tension 50%
• Tensile Strength 25%
• Mechanical Properties 25%
• Interlaminar Fracture Toughness 25%
• Carbon-epoxy Composite 25%
• Electrically Conductive 25%
• Distribution Process 25%
• Silver Nanowires 25%
• Composite Laminates 25%
• Ag Nanowires (AgNWs) 25%
• Nanosize 25%
• Strain Rate 25%
• Tensile Failure 25%
• High-speed Camera 25%
• Strain Rate Effect 25%
• Failure Strain 25%
• Carbon Modification 25%
• Enhanced Electrical Conductivity 25%
• Unidirectional Carbon Fiber 25%
• Longitudinal Tensile 25%
• Digital Image Correlation Technique 25%
• Longitudinal Tension 25%
• Split Hopkinson Pressure Bar 25%
• In-plane Compression 25%
• In-plane Mode 25%
• Strain Value 25%
• In-plane Strain 25%
• Failure Process 25%
• In Situ Strain 25%
• Benchmark Dose 25%
• Strain Mapping 25%
• Tension Properties 25%

Engineering

• Tensiles 100%
• Strain Rate 100%
• Carbon-Epoxy Laminate 100%
• Rate Dependence 100%
• Interlayer 50%
• Rates of Strain 50%
• Ultimate Tensile Strength 25%
• Experimental Work 25%
• Nanowires 25%
• Electrical Conductivity 25%
• Conductive 25%
• Impact Toughness 25%
• Young's Modulus 25%
• Epoxy Laminate 25%
• Loaded Surface 25%
• Speed Camera 25%
• Failure Strain 25%
• Plane Strain 25%
• Strain Rate Effect 25%
• Failure Process 25%
• Benchmark Analysis 25%
• Hopkinson 25%
• Longitudinal Tension 25%
• Digital Image Correlation Technique 25%

Material Science

• Strain Rate 100%
• Ultimate Tensile Strength 33%
• Nanowire 33%
• Carbon Fiber 33%
• Silver 33%
• Electrical Conductivity 33%
• Fracture Toughness 33%
• Elastic Moduli 33%
• Composite Laminate 33%
• Strain Rate Effect 33%