PA66 CF20 Technical Data (Estimated Typical Values)
| Property | Value | Test Standard |
|---|---|---|
| Carbon Fiber Content | 20% | ISO 1172 |
| Tensile Strength | 200 – 230 MPa | ISO 527 |
| Flexural Modulus | 16,000 – 19,000 MPa | ISO 178 |
| Notched Impact Strength | 9 – 12 kJ/m² | ISO 180 |
| HDT @1.8 MPa | 255 – 265 °C | ISO 75 |
| Volume Resistivity | 10^2 – 10^4 Ω·cm | IEC 60093 |
PA66 CF Series Technical Data Table (Estimated Typical Values)
| Property | Test Standard | PA66 CF10 | PA66 CF20 | PA66 CF30 | PA66 CF40 | PA66 CF50 |
|---|---|---|---|---|---|---|
| Carbon Fiber Content | ISO 1172 | 10% | 20% | 30% | 40% | 50% |
| Tensile Strength | ISO 527 | 160 – 180 MPa | 200 – 230 MPa | 240 – 270 MPa | 260 – 290 MPa | 280 – 320 MPa |
| Flexural Modulus | ISO 178 | 11,000 – 13,000 MPa | 16,000 – 19,000 MPa | 21,000 – 24,000 MPa | 25,000 – 28,000 MPa | 29,000 – 33,000 MPa |
| Notched Impact Strength | ISO 180 | 8 – 11 kJ/m² | 9 – 12 kJ/m² | 10 – 13 kJ/m² | 11 – 14 kJ/m² | 12 – 15 kJ/m² |
| HDT @1.8 MPa | ISO 75 | 250 – 260 °C | 255 – 265 °C | 260 – 270 °C | 265 – 275 °C | 270 – 280 °C |
| Volume Resistivity | IEC 60093 | 10^3 – 10^5 Ω·cm | 10^2 – 10^4 Ω·cm | 10^1 – 10^3 Ω·cm | 10^0 – 10^2 Ω·cm | 10^-1 – 10^1 Ω·cm |
PA66 CF20 Key Advantages
✅ Enhanced Structural Performance: Delivers significantly higher stiffness and strength than CF10, along with good impact resistance, ideal for load-bearing components.
✅ Superior Functional Conductivity: Provides improved electrical and thermal conductivity over lower CF grades, enhancing heat dissipation and ESD performance for advanced mechanical and electronic parts.
Industry Applications:
Explore the PA66 Carbon Fiber Series in Detail
Click on the links below to view comprehensive technical data, key advantages, and application details for each specific grade.
| Grade | Best For | Overview | Full Details |
|---|---|---|---|
| PA66 CF10 | High-temp capable parts needing stiffness & ESD on a budget. | The most accessible high-temperature CF grade, offering enhanced heat resistance, rigidity, and ESD protection over standard PA66. | View PA66 CF10 Full Data Sheet → |
| PA66 CF20 | Demanding metal replacement where heat, strength & weight matter. | A balanced performer for high-temperature environments, excelling in strength-to-weight ratio and functional conductivity. | View PA66 CF20 Full Data Sheet → |
| PA66 CF30 | Structural components under high thermal and mechanical stress. | The benchmark for high-temperature structural integrity, providing near-metallic stiffness and outstanding fatigue resistance. | View PA66 CF30 Full Data Sheet → |
| PA66 CF40 | Ultra-stiff, high-heat applications where deflection is critical. | Engineered for maximum rigidity and dimensional stability under extreme thermal and mechanical loads. | View PA66 CF40 Full Data Sheet → |
| PA66 CF50 | Mission-critical applications at the limits of thermal & mechanical performance. | The pinnacle grade, delivering peak specific strength and stiffness in the most severe high-temperature environments. | View PA66 CF50 Full Data Sheet → |
Powering Innovation Across Industries
| Industry | Key Applications |
|---|---|
| Automotive | Engine covers, intake manifolds, structural brackets, sensor housings, connectors. Explore Automotive Applications → |
| Electrical & Electronics | Circuit breakers, switches, connector housings, insulating components. Discover E&E Solutions → |
| Industrial Equipment | Gears, bearings, machine housings, rollers, mechanical components. See Industrial Uses → |
How to Choose the Right PA66 CF Grade?
In simple terms:
For a cost-effective upgrade into high-temperature capable carbon fiber composites with significantly improved stiffness, heat resistance, and ESD, consider PA66 CF10.
For the optimal balance of high strength, heat deflection temperature, and lightweight design in demanding metal replacement applications, choose PA66 CF30. It is the performance benchmark for most high-temperature structural uses.
For the ultimate high-temperature stiffness, strength, and dimensional stability where performance is critical under extreme conditions, consider PA66 CF50.
Why Choose Us?
FAQ Section:
Q1: What is the main advantage of PA66 CF10 over standard PA66?
PA66 CF10 provides a multi-faceted upgrade with 10% carbon fiber reinforcement. Key benefits include:
Higher Heat Resistance: Significantly increased Heat Deflection Temperature (HDT) for use in hotter environments.
Enhanced Stiffness & Dimensional Stability: Greater rigidity and lower thermal expansion for precision parts.
Static Dissipation: Built-in conductivity protects electronic components.
It’s the ideal starting point for applications needing better heat and mechanical performance than standard PA66.
Q2: Is PA66 CF10 suitable for under-the-hood automotive parts?
Yes, it is an excellent candidate. Its inherent high heat resistance (HDT >250°C) combined with improved stiffness and ESD protection makes it suitable for sensor housings, connectors, brackets, and other components near the engine where temperatures are elevated.
Q3: How should I process PA66 CF10?
For optimal results:
Dry thoroughly at 80-90°C for 4-6 hours before processing to prevent hydrolysis.
Use a melt temperature in the range of 280-310°C.
A mold temperature of 80-110°C is recommended for best crystallinity and surface finish.
Use wear-resistant screws and barrels due to the abrasive nature of carbon fibers.
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