A study of the effect of strain rate and temperature on the characteristics of quasi-unidirectional natural fibre reinforced composites

Keyphrases

• Ambient Temperature 33%
• Average Power Coefficient 33%
• Contact Time 33%
• Crosshead 33%
• Damage Response 33%
• Displacement Energy 33%
• Displacement Rate 33%
• Drop Test 33%
• Drop Tester 33%
• Elastic Body 33%
• Elevated Temperature 66%
• Energy Profile 33%
• Extrinsic Factors 33%
• Failure Mode 33%
• Flax 33%
• Flax Composites 33%
• Head Displacement 33%
• Hertz Contact 33%
• High Temperature 33%
• High-energy Impact 33%
• Impact Characteristics 100%
• Impact Energy 33%
• Impactor 33%
• Indentation Properties 33%
• Intrinsic Factors 33%
• Kinetic Energy 33%
• Load Energy 33%
• Loading History 33%
• Low-energy Impact 33%
• Natural Fiber Composites 100%
• Natural Fibers 33%
• Plastic Deformation 33%
• Polyester Composite 66%
• Real Damage 33%
• Room Temperature 33%
• Sample Temperature 33%
• Shape Energy 33%
• Si Composite 33%
• Stacking Sequence 33%
• Static Loading 33%
• Strain Rate Effect 100%
• Styrene 66%
• Total Energy 33%
• Vegetable Fibers 33%

Engineering

• Average Power 25%
• Contact Time 25%
• Crosshead Displacement 25%
• Effect of Strain 100%
• Elastic Body 25%
• Elevated Temperature 50%
• Energy Engineering 100%
• Fiber-Reinforced Composite 100%
• Flax Fiber 25%
• Hertz 25%
• Impact Energy 25%
• Impact Test 25%
• Indentation 25%
• Mm Diameter 25%
• Natural Fibre 100%
• Plastic Deformation 25%
• Power Coefficient 25%
• Room Temperature 25%
• Sample Temperature 25%
• Sisal 25%
• Sisal Fibre 25%
• Static Loading 25%
• Strain Rate 100%

Material Science

• Effect of Strain 100%
• Fiber-Reinforced Composite 100%
• Impact Testing 50%
• Indentation 50%
• Matrix Composite 100%
• Natural Fibre 100%
• Plastic Deformation 50%
• Polyester 100%
• Static Loading 50%
• Strain Rate 100%