Product Description
>> Carbon Fiber UD fabrics are high-performance materials featuring carbon fibers all oriented in a single direction, offering exceptional strength, lightweight characteristics, corrosion resistance, and being widely utilized in aerospace, automotive, sports goods, and construction industries for components that require enhanced mechanical properties along a specific axis.
- | 0° | 90° |
(g/m²) | ||
Fiber | Density (g/m²) | Fiber | Density (g/m²) | ||
CUD200-12k | 12K | 200 | Other | -- | 200 |
CUD300-12k | 12K | 300 | Other | -- | 300 |
CUD320-6k | 6K | 320 | Other | -- | 320 |
CUD320-12k | 12K | 320 | Other | -- | 320 |
CUD500-6k | 6K | 500 | Other | -- | 500 |
Is CUD300-1000 strong enough for bicycle frames?
Yes. Its 3000MPa tensile strength along the 0° axis supports rider weight (up to 150kg) and absorbs road vibrations; many professional cyclists use frames made with this fabric.
Can CUD300-1000 be painted or coated?
Yes. Its smooth surface accepts paint, vinyl, and anti-scratch coatings—common for custom bicycle frames and high-end sports equipment.
How does CUD300-1000 perform in cold temperatures?
It maintains flexibility and strength down to -60°C, making it suitable for snowboards and ice fishing rods used in sub-zero climates.
Technical Sheet
Code | Warp | Weft | Density g/m2 | Thickness mm | ||
Fiber | Weight g/m2 | Fiber | Weight g/m2 | |||
CUD300 | 12K | 300 | Hot Melt | 8 | 300 | 0.3 |
| >> Suitable production process | >> Characteristics |
| Prepreg process, Vacuum Infusion Process, hand Lay-up, molding process, Holding pressure tank process | With high strength, high modulus, high temperature resistance, wear resistance, corrosion resistance, fatigue resistance, electrical conductivity, electric heating and infrared radiation and other excellent properties. |
Lightweight 12K Fiber Selection: Thin-diameter 12K carbon fibers are chosen to reduce weight while maintaining tensile strength (>3000MPa).
Precision UD Laying: Fibers are laid in a 0° direction with computerized tension control, ensuring uniform spacing (no overlapping) to minimize weight.
Low-Temp Hot-Melt Bonding: A low-melt polymer weft is applied at 60–80°C to avoid fiber degradation, securing alignment without adding thickness.
Finishing: The fabric is calendared to a smooth surface (improving resin flow) and cut with laser tools for clean edges—critical for sports equipment aesthetics.
Ultra-Lightweight: 300g/m² weight and 1.75g/cm³ density reduce bicycle frame weight by 40% compared to aluminum, improving speed and maneuverability.
High Flexibility: Bends without cracking, making it ideal for fishing rods (absorbing fish strikes) and snowboard cores (adapting to terrain).
Fast Resin Impregnation: Smooth surface allows resin to spread evenly in 2–3 minutes, reducing manufacturing time for sports goods.
Discreet Reinforcement: Thin profile adds <1mm to component thickness—perfect for historic building restoration, where preserving original dimensions is key.
Main Application Area
Aerospace & Aviation, Military industry and wind power industry,
Transportation, Construction Industry, Medical equipment, Sports products.
>> Sports Equipment This material is highly valued in the sports goods industry. It is used to manufacture a wide range of sports equipment, including bicycles, tennis rackets, golf clubs, and fishing rods. For bicycles, carbon fiber fabric frames offer a perfect combination of lightness and stiffness, allowing cyclists to achieve higher speeds with less effort. Tennis rackets made from carbon fiber fabric provide better power transfer and control, enhancing the player's performance. Golf clubs crafted with carbon fiber fabric offer greater flexibility and accuracy, while fishing rods are more sensitive and durable, enabling anglers to detect even the slightest bites. |
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| >> Electronics and Electrical Appliances In the electronics industry, carbon fiber fabric is used in the manufacturing of high-performance electronic devices due to its electrical conductivity and thermal properties. It can be incorporated into components such as heat sinks to improve heat dissipation, ensuring the proper functioning and longevity of electronic devices. Additionally, its lightweight nature makes it suitable for applications where reducing the weight of electronic products is crucial, such as in portable devices and aerospace electronics. |
Advantage
Good Corrosion Resistance and Durability Carbon fiber fabric has excellent corrosion resistance and can resist the erosion of chemical substances such as acids, alkalis, and salts, as well as the influence of harsh environments such as humidity and high temperature. Compared with traditional steel reinforcement methods, carbon fiber fabric will not rust and does not require complex anti-corrosion treatments, thus reducing maintenance costs and subsequent maintenance work. This gives it great advantages in building reinforcement projects in corrosive environments such as coastal areas and chemical plants, ensuring that the reinforced structure can work stably for a long time. |  |
Width And Weight Can Customized
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Maintenance
| Clean the surface of the carbon fiber Fabric. During use, dust and stains on the surface of carbon fiber Fabric should be cleaned in time, and special cleaners should be used to avoid acidic or alkaline cleaners. |
| Prevent carbon fiber Fabric From being exposed to sunlight for a long time. Long exposure to sunlight will make the surface of carbon fiber Fabric crack and fade, affecting the beauty and service life. |
 | When storing carbon fiber Fabric Attention should be paid to avoid humidity, high temperature and other environments. When storing carbon fiber Fabric, avoid humidity, high temperature and other environments, and keep dry and ventilated. |
Density
