Development of a Novel Characterization Model for Innovative Bionic Helical Carbon Fiber Tows

Keyphrases

• Helical Carbon Fibers 100%
• Helical Structures 100%
• Carbon Fiber Tow 100%
• Characterization Model 100%
• Carbon Fiber 75%
• Traditional Models 50%
• Prediction Error 50%
• Circular Cross-section 50%
• Cross Model 50%
• Modulus Prediction 50%
• Microstructure 25%
• Prediction Accuracy 25%
• Mechanical Properties 25%
• Complex Structure 25%
• Design Optimization 25%
• Prediction Model 25%
• Finite Element Simulation 25%
• Load Capacity 25%
• Fracture Toughness 25%
• Helix 25%
• Complex Materials 25%
• Engineering Application 25%
• Performance Optimization 25%
• Tensile Strength 25%
• Methodological Support 25%
• Material Moduli 25%
• Impact Resistance 25%
• Tensile Test 25%
• Material System 25%
• Material Optimization 25%
• Mechanical Properties Improvement 25%
• Tensile Fracture 25%
• Strength-toughness 25%
• Twist Angle 25%
• Twisting Technique 25%
• Fiber Twisting 25%
• Model Complex 25%
• Macroscopic Properties 25%

Engineering

• Bionics 100%
• Helical Structure 100%
• Prediction Error 50%
• Circular Cross Section 50%
• Complex Structure 25%
• Test Result 25%
• Constrains 25%
• Finite Element Simulation 25%
• Engineering Application 25%
• Bearing Capacity 25%
• Ultimate Tensile Strength 25%
• Tensile Test 25%
• Material Optimisation 25%
• Twist Angle 25%
• Macroscopic Property 25%
• Material System 25%
• Fracture Strength 25%
• Impact Resistance 25%

Material Science

• Carbon Fiber Tow 100%
• Carbon Fiber 75%
• Finite Element Method 25%
• Fracture Toughness 25%
• Bearing Capacity 25%
• Ultimate Tensile Strength 25%
• Impact Resistance 25%