PVC plastic, short for polyvinyl chloride, has relatively high rigidity and strength, making it highly suitable for thermoforming. Thanks to its high transparency and resistance to various chemicals and substances, PVC plastic is often used in the packaging industry and medical technology for blister packaging and thermoformed parts.
PVC plastic excels in thermoforming due to its excellent moldability. Experience shows that PVC can be easily thermoformed into various shapes and sharp contours. Blisters made of PVC plastic can also be bonded very well in post-processing. This makes polyvinyl chloride a high-quality material in terms of processability and thermoformability. Challenges arise with PVC plastic during recycling. When PVC is incinerated for energy recovery, environmentally hazardous substances such as gaseous hydrogen chloride or heavy metal stabilizers are released. As a result, incineration plants must be equipped with advanced filtration technology to neutralize these substances and prevent harmful emissions. Since this energy recovery process comes with high environmental protection costs, polyvinyl chloride is often replaced by PET whenever the application allows.
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Group | Standard Thermoplastics |
Structure | Amorphous |
Density | 1.39 |
Continuous Use Temperature Min. (in °C) | -5 |
Continuous Use Temperature Max. (in °C) | 65 |
Thermal Expansion Transverse/Longitudinal to Flow Direction (10^-6 *K) | 80 |
Melting Temperature (°C) | 80 |
Max. Temp. Short-Term (°C) | 70 |
Max. Temp. Long-Term (°C) | 60 |
Impact Strength (KJ/m^2) | 80 |
Yield Stress (N/mm²) | 58 |
Tensile Strength (N/mm²) | 58 |
Tensile Modulus of Elasticity (N/mm²) | 2900 |
Elongation at Break (%) | 15 |
Flexural Strength (N/mm²) | 85 |
Ball Indentation Hardness (N/mm²) | 130 |
Dielectric Strength (kV/mm) | 40 |
Volume Resistivity (Ω · m) | 1E13 |
Surface Resistivity (Ω) | 1E13 |
Tracking Resistance CTI | 600 |