Black Antistatic UHMW-PE Film AT433
- Antistatic Performance: Designed to prevent static charge accumulation, the AT433 film provides controlled dissipation, reducing electrostatic risks in sensitive environments.
- Wear Resistance: Offers excellent abrasion resistance typical of UHMW-PE, ensuring durability in high-friction and continuous operation systems.
- High Tensile Strength: With a tensile strength of 40–68 MPa, the film maintains reliable structural performance under mechanical stress.
- Excellent Elongation: The elongation range of 300%–480% ensures flexibility and resistance to cracking under repeated movement or impact.
- Controlled Surface Resistance: With a surface resistance of 10³ to 10¹² Ω, the material is suitable for antistatic applications where full conductivity is not required.
- Low Friction Performance: The self-lubricating surface reduces wear, noise, and energy loss in sliding and conveying systems.
- Chemical Stability: Resistant to a wide range of chemicals, ensuring consistent performance in industrial and electronic environments.
Free shipping on orders over $50!
- Satisfaction Guaranteed
- No Hassle Refunds
- Secure Payments
Description
The Black Antistatic UHMW-PE Film AT433 from AxisTape is specifically engineered to control static buildup without full conductivity, making it ideal for environments where electrostatic discharge must be minimized rather than rapidly conducted away.
Key Features
- Antistatic Performance: Designed to prevent static charge accumulation, the AT433 film provides controlled dissipation, reducing electrostatic risks in sensitive environments.
- Wear Resistance: Offers excellent abrasion resistance typical of UHMW-PE, ensuring durability in high-friction and continuous operation systems.
- High Tensile Strength: With a tensile strength of 40–68 MPa, the film maintains reliable structural performance under mechanical stress.
- Excellent Elongation: The elongation range of 300%–480% ensures flexibility and resistance to cracking under repeated movement or impact.
- Controlled Surface Resistance: With a surface resistance of 10³ to 10¹² Ω, the material is suitable for antistatic applications where full conductivity is not required.
- Low Friction Performance: The self-lubricating surface reduces wear, noise, and energy loss in sliding and conveying systems.
- Chemical Stability: Resistant to a wide range of chemicals, ensuring consistent performance in industrial and electronic environments.
Technical Specifications
| Material Code | AT433 |
| Density | 0.92–0.94 g/cm³ |
| Color | Black |
| Thickness | 0.03 – 2.5 mm |
| Width | ~1300 mm |
| Surface Resistance | 10^3 – 10^12Ω |
| Tensile Strength | 40 – 68 MPa |
| Elongation Rate | 300% – 480% |
| Special Property | Antistatic |
Applications
- Electronics Assembly & Handling: Prevents static buildup that could damage sensitive electronic components.
- Packaging for Static-Sensitive Products: Ideal for protective layers or liners in electronics and precision parts packaging.
- Automated Conveyor Systems: Reduces dust attraction and static-related interference in material handling.
- Cleanroom & Controlled Environments: Minimizes particle attraction caused by electrostatic charges.
- Industrial Processing Equipment: Suitable for applications requiring both wear resistance and static control.
Customizable Options
- Surface Resistance Adjustment: Tunable to meet specific antistatic performance requirements.
- Thickness & Width Customization: Available based on equipment or application specifications.
- Format Options (Roll / Sheet / Cut-to-Size): Flexible supply forms for integration into production processes.
- Functional Modifications: Can be combined with additional properties (e.g., UV resistance or temperature resistance).
Ordering & Technical Support
AxisTape provides flexible minimum order quantities, competitive pricing, and worldwide delivery. For custom specifications or technical inquiries, please feel free to contact us for a detailed consultation or email us at info@axistape.com.






Reviews
There are no reviews yet.