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| Min Order | 2000 Meters |
| Trade Term | FOB,C&F,CIF,EXW |
| Payment Terms | T/T |
| Place of Origin | Wuhan |
| Means of Tranport | Ocean |
| Production Capacity | 40,000 Meters/Month |
| Packing | Customized |
The 32.5mm Y1 polyamide insulation strips are crafted to enhance the thermal performance of aluminum doors, windows, and curtain wall systems. Made from PA66GF25, these strips offer remarkable durability and excellent thermal isolation properties, making them ideal for modern, energy-efficient buildings.
Designed to break thermal bridges in aluminum systems, these polyamide thermal break strips significantly reduce heat transfer, helping to maintain stable indoor temperatures and improve energy efficiency. They are engineered to provide a tight fit with aluminum frames, minimizing energy loss and ensuring consistent insulation even under varying temperatures.
These polyamide insulating profiles for aluminum doors and windows not only meet the highest industry standards but also provide long-lasting performance in both residential and commercial construction. With their ability to resist moisture, UV rays, and extreme temperatures, they contribute to the longevity and stability of your building systems.
The versatility of these thermal break profiles makes them suitable for various applications. They can be customized to fit different aluminum profile shapes, including C-type, I-type, and T-type, ensuring compatibility with diverse building designs. Additionally, these profiles are compliant with international standards, such as GB/T23615.1-2017, and are certified under ISO 9001:2015.
Ideal for energy-efficient and sustainable construction, these profiles are available in black and offer high mechanical strength, making them a reliable solution for high-performance aluminum systems. With a production capacity of 40,000 meters per month and fast delivery within 7 to 15 days, we ensure that your projects are completed on time and to specification. Custom packaging options are also available to meet your unique requirements.
| Parameter | Value |
|---|---|
| Brand Name | Yuanfa |
| Product Name | Thermal Break Polyamide Strips |
| Material | PA66GF25 |
| Color | Black |
| Width | 32.5mm |
| Density | 1.30±0.05 g/cm³ |
| Standard Length | 6 meters/piece |
| Certification | ISO 9001:2015, CN09/20301 |
| Processing | High Precision Polyamide Extrusion |
| Compliance | GB/T23615.1-2017 |
| Application | Aluminum Profiles, Thermally Broken Aluminum Windows & Doors |
| Minimum Order | 2000 meters |
| Shipping Method | Ocean Transport |
| Production Capacity | 40,000 meters/month |
| Packaging | Customizable |
| Delivery Time | 7-15 days |
These polyamide thermal break strips are the perfect choice for optimizing the energy efficiency of aluminum systems. With their superior insulation properties, they help ensure that your building’s thermal performance meets modern standards for sustainability. Reach out to us today for more information or to discuss customized solutions for your project.
The 32.5 mm Y1 thermal insulation polyamide profiles are designed to significantly reduce heat transfer in aluminum door, window, and curtain wall systems. By effectively breaking thermal bridges, these polyamide thermal break strips help improve energy efficiency, reducing reliance on heating and cooling systems. This results in energy savings and better climate control inside the building, contributing to sustainability efforts.
Constructed from PA66GF25, these polyamide insulating profiles provide excellent mechanical strength, ensuring long-term stability even under high pressure or fluctuating temperatures. Their high durability makes them ideal for both residential and commercial buildings, where reliable and long-lasting performance is essential.
The high-precision polyamide extrusion process ensures these thermal break profiles fit seamlessly into various aluminum systems. This precision reduces the risk of errors during installation and guarantees a tight, secure fit, which improves the overall performance of the aluminum structure.
The specially designed grooved surface of these polyamide profiles enhances their interlocking capability with aluminum frames, providing a stronger and more secure bond. This feature improves assembly efficiency and reduces the risk of displacement or movement under pressure, ensuring lasting stability and effectiveness.
These polyamide insulation profiles are fully compliant with RoHS standards and do not contain harmful substances, making them a suitable choice for environmentally-conscious projects. Their eco-friendly properties contribute to the sustainability of green building designs and energy-efficient construction solutions.
These thermal break profiles offer excellent longevity, maintaining their thermal performance and structural integrity over time. They are designed to withstand harsh environmental conditions, such as exposure to UV light, moisture, and extreme temperature fluctuations, making them ideal for both exterior and interior applications.
The polyamide profiles also exhibit strong resistance to a variety of chemicals, making them highly suitable for industrial applications where exposure to harsh chemicals may occur. This chemical resistance ensures the profiles maintain their performance and durability in demanding environments.
Polyamide thermal break strips for aluminum doors and windows: Improve thermal performance, reducing energy consumption and enhancing building insulation.
Aluminum curtain wall systems: Enhance structural stability and provide superior thermal isolation for high-rise buildings.
Industrial thermal isolation: Protect equipment and machinery from high temperatures, ensuring efficient and safe operation in industrial settings.
Buildings in cold climates: These thermal break profiles ensure consistent indoor temperatures, reducing energy loss and maintaining comfort in cold regions.
The 32.5 mm Y1 polyamide thermal insulation profiles are an effective and reliable solution for enhancing the energy efficiency of aluminum systems. Their durability, ease of installation, and superior thermal performance make them ideal for a wide range of applications, from residential buildings to large-scale commercial projects. These profiles contribute to sustainable construction and help achieve energy savings in modern buildings.
Q1: How do polyamide thermal break strips enhance the thermal performance of aluminum door frames?
A1: These polyamide strips effectively reduce heat transfer, improving the thermal insulation of aluminum doors and enhancing overall energy efficiency in buildings.
Q2: What makes polyamide profiles a reliable solution for aluminum window systems?
A2: Polyamide profiles offer long-lasting durability, high thermal resistance, and precision fit, making them an ideal solution for energy-efficient aluminum window systems.
Q3: Are these thermal break profiles resistant to environmental factors like UV or moisture?
A3: Yes, these polyamide profiles are highly resistant to UV radiation, moisture, and extreme temperatures, ensuring reliable performance in harsh weather conditions.
Q4: Can polyamide thermal break strips be used in both new construction and retrofitting projects?
A4: Yes, these profiles are versatile and can be used in both new aluminum construction and retrofitting existing aluminum frames to improve insulation.
Q5: How do polyamide insulating profiles contribute to a building’s LEED certification?
A5: By improving energy efficiency and reducing heat loss, these polyamide profiles support sustainable building practices and help achieve points toward LEED certification.
Q6: What is the lifespan of polyamide thermal break strips in exterior applications?
A6: These profiles are designed for long-term use, maintaining their thermal and mechanical properties even in demanding exterior applications exposed to extreme weather.
Q7: How do these polyamide profiles compare to other thermal break materials?
A7: Polyamide profiles offer superior insulation, strength, and long-term durability, outperforming other materials in terms of thermal performance and structural stability.
