Finite element analysis on conventional drilling of natural fibre-reinforced polymer bio-composites

Keyphrases

• ANSYS Software 33%
• Basalt 66%
• Basalt Fiber 66%
• Basalt Fiber-reinforced Polymer 33%
• Bio-based Composites 33%
• Composite Materials 100%
• Conventional Drilling 100%
• Drill Hole 33%
• Drilling Conditions 33%
• Drilling Damage 66%
• Drilling Operation 33%
• Drilling Process 33%
• Equivalent Elastic Strain 33%
• Fiber Pull-out 33%
• Finite Element Analysis 100%
• Flax 66%
• Flax Fiber 33%
• FRP Composites 33%
• High Strain Rate Deformation 33%
• High Stress 66%
• Hybrid Materials 33%
• Impact Level 33%
• Low Tensile Strength 33%
• LS-DYNA 33%
• Machinability 33%
• Machining Process 33%
• Natural Fibre Reinforced Polymer 100%
• Polymer Biocomposites 100%
• Push-out Delamination 33%
• Resistance Strength 33%
• Surface Material 33%
• Tensile Impact 33%
• Tensile Strength 33%
• Uncut Fibres 33%
• Vinyl Ester 33%

Engineering

• Basalt Fibre 75%
• Biocomposite 100%
• Composite Material 100%
• Delamination 25%
• Drilled Hole 25%
• Drilling Operation 25%
• Elastic Strain 25%
• Fiber-Reinforced Polymer 100%
• Finite Element Analysis 100%
• Flax Fiber 25%
• Induced Damage 50%
• Low Tensile Strength 25%
• Reinforced Plastic 50%
• Simulation Result 25%
• Ultimate Tensile Strength 25%

Material Science

• Biocomposites 25%
• Composite Material 100%
• Delamination 25%
• Drilling 25%
• Finite Element Method 100%
• Hybrid Material 25%
• Machinability 25%
• Machining 50%
• Natural Fibre 100%
• Reinforced Plastic 100%
• Surface (Surface Science) 25%
• Ultimate Tensile Strength 50%