Rheological and mechanical properties of PVC/CaCO₃ nanocomposites prepared by in situ polymerization

Keyphrases

• Mechanical Properties 100%
• Rheological Properties 100%
• Polyvinyl Chloride 100%
• In Situ Polymerization 100%
• CaCO3 Nanoparticles 60%
• Nanoparticles 20%
• Vinyl Chloride 20%
• Matrix Materials 10%
• High Temperature 10%
• Thermal Properties 10%
• Glass Transition 10%
• Debonding 10%
• Fracture Test 10%
• Young's Modulus 10%
• Carbonate 10%
• Shear Rate 10%
• Tensile Specimen 10%
• Elongation at Break 10%
• Impact Energy 10%
• Tensile Fracture 10%
• Charpy 10%
• Thermogravimetric Analysis 10%
• Thermal Decomposition Temperature 10%
• Dynamic Mechanical Analysis 10%
• Chain Mobility 10%
• Optimal Properties 10%
• Apparent Viscosity 10%
• Power-law Behavior 10%
• Impact Fracture 10%
• Shear Thinning 10%
• Spherical Nanoparticles 10%
• Micro Failure 10%
• Tensile Yield Strength 10%
• Capillary Rheometry 10%
• Notched Impact 10%
• Stress Raiser 10%
• Failure Micromechanisms 10%
• Uniformly Distributed 10%
• Viscosity Sensitivity 10%
• Ball-bearing Effect 10%

Material Science

• Nanoparticle 100%
• Polymerization 100%
• Nanocomposite 100%
• Yield Stress 11%
• Debonding 11%
• Fracture Toughness Testing 11%
• Glass Transition 11%
• Young's Modulus 11%
• Thermogravimetric Analysis 11%
• Dynamic Mechanical Analysis 11%
• Ball Bearing 11%