SHUNJV CARBON FIBER PRODUCTS
Focus on High-performance Fibers

Weaving and composite using special polymer materials such as carbon fiber, aramid fiber, and glass fiber as raw materials

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SHUNJV CARBON FIBER PRODUCTS
Provide High-quality Products

Provide you with better quality products and services, and make contributions to the composite material industry in China!

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SHUNJV CARBON FIBER PRODUCTS
Wide Range of Product Applications

Applied to fields such as automotive components, pressure vessels, hulls, sports equipment, textile equipment, medical equipment

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ABOUT SHUNJV


Expert in the Field of Polymer Fiber Products

Jiangsu Shunju Woven Carbon Fiber Co., Ltd. is a scientific and technological enterprise engaged in the weaving, development, and development of various high-performance fibers. The company mainly uses carbon fiber, aramid fiber, glass fiber, and other special polymer materials as raw materials for weaving and composite production units. The company has a strong technical force, with advanced professional equipment and production technology in China.

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PRODUCTS

Mainly uses special polymer materials such as carbon fiber, aramid fiber, and glass fiber as raw materials for weaving and composite


PRODUCTS

Aromatic Carbon Blended Fabric

Mixed woven fabric is a new type of fiber fabric that utilizes the respective characteristics of carbon fiber, aramid fiber, and other fibers.

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PRODUCTS

Carbon Fiber Plain and Twill Fabrics

Application fields: boutique decoration, sports equipment, automotive accessories, clocks and watches.

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PRODUCTS

Jacquard Cloth

High strength, low density, thin thickness, basically without increasing the dead weight and cross-sectional dimensions of the reinforced member

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PRODUCTS

3D Three-dimensional Cloth

High strength, low density, thin thickness, basically without increasing the dead weight and cross-sectional dimensions of the reinforced member

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APPLICATION AREA

  • Carbon Fiber - Wind Power
    Carbon Fiber - Wind Power
    Applied to automotive components, pressure vessels, hulls, sports equipment, textile equipment, medical equipment, and other fields
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  • Carbon Fiber Pipe / Plate
    Carbon Fiber Pipe / Plate
    Applied to automotive components, pressure vessels, hulls, sports equipment, textile equipment, medical equipment, and other fields
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  • Carbon Fiber - Aviation
    Carbon Fiber - Aviation
    Applied to automotive components, pressure vessels, hulls, sports equipment, textile equipment, medical equipment, and other fields
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  • Carbon Fiber - Medical
    Carbon Fiber - Medical
    Applied to automotive components, pressure vessels, hulls, sports equipment, textile equipment, medical equipment, and other fields
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  • Carbon Fiber - Sports Equipment
    Carbon Fiber - Sports Equipment
    Applied to automotive components, pressure vessels, hulls, sports equipment, textile equipment, medical equipment, and other fields
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  • Carbon Fiber Products
    Carbon Fiber Products
    Applied to automotive components, pressure vessels, hulls, sports equipment, textile equipment, medical equipment, and other fields
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  • Product Application Field
    Fine Ceramics is a professional manufacturer of fine ceramics that integrates development, design, and production
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    NEWS INFORMATION

    Jul 28,2022

    What are the uses of carbon fiber?

    The main use of carbon fibers is to composite with matrices such as resins, metals, and ceramics to make structural materials. Carbon fiber reinforced epoxy resin composites have high specific strength and specific modulus among existing structural materials. Carbon fiber composites have significant advantages in areas with strict requirements for density, stiffness, weight, and fatigue properties, as well as in situations requiring high temperature and chemical stability. Carbon fiber was produced in the early 1950s in response to the needs of cutting-edge science and technology such as rockets, aerospace, and aviation. It is also widely used in sports equipment, textiles, chemical machinery, and medical fields. With the increasingly stringent requirements of cutting-edge technology on the technical performance of new materials, scientific and technological workers are constantly striving to improve. In the early 1980s, high-performance and ultra-high-performance carbon fibers emerged one after another, which was another technological leap, marking that the research and production of carbon fibers had entered an advanced stage. Composite materials composed of carbon fiber and epoxy resin have become an advanced aerospace material due to their small specific gravity, good rigidity, and high strength. Because every 1kg reduction in the weight of a space vehicle can reduce the weight of a carrier rocket by 500kg. Therefore, there is a scramble to adopt advanced composite materials in the aerospace industry. There is a vertical takeoff and landing fighter that uses carbon fiber composites that already account for 1/4 of the total aircraft weight and 1/3 of the wing weight. It is reported that the key components of the three rocket propellers on the US space shuttle and the advanced MX missile launch tubes are all made of advanced carbon fiber composite materials. In F1 (Formula One World Championship) racing cars, most of the body structure is made of carbon fiber materials. One of the big selling points of sports cars is the use of carbon fiber around the body to improve aerodynamic performance and structural strength. Carbon fibers can be processed into fabrics, blankets, mats, tapes, paper, and other materials. In traditional use, carbon fiber is not generally used alone, except as a thermal insulation material. It is often added as a reinforcing material to materials such as resins, metals, ceramics, and concrete to form composite materials. Carbon fiber reinforced composites can be used as body substitute materials such as aircraft structural materials, electromagnetic shielding materials, artificial ligaments, and for manufacturing rocket shells, motor boats, industrial robots, automotive leaf springs, and drive shafts. On December 7, 2022, China successfully launched the Kuaizhou 11 solid carrier rocket, which is made of carbon fiber composite materials.

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    Jan 10,2022

    How to machine carbon fiber products?

    Carbon fiber materials have the advantage of being light and thin compared to other materials, and can be used to produce products with various complex shapes without special processing. Carbon fiber products are laminated and hot-pressed with carbon fiber prepregs. After molding, they have high hardness and brittleness, which requires attention during later machining to prevent delamination and tearing During the machining of carbon fiber products, delamination and tearing are prone to occur, which can lead to a decline in the performance of carbon fiber products. Due to the relatively high strength of carbon fiber products, the cutting force is also higher, especially when processing carbon fiber products with relatively thick wall thickness. At this time, there will be a lot of heat around the hole, so it is recommended to choose a hard alloy or diamond bit during machining. The traditional Fried Dough Twists bit is easy to cause debris accumulation. It is recommended to choose a drill with a central through hole and a row groove on the end face, which is conducive to the discharge of debris. When drilling carbon fiber products, the shear stress of the cutter head along the linear velocity direction causes the surface layer of the carbon fiber material to form a tearing delamination force without binding. However, as the drill bit gradually deepens, the drill bit will generate a certain taper, and then there is a force perpendicular to the surface of the carbon fiber product that can resist the tearing delamination force, which can ensure the overall mechanical properties of the carbon fiber product. When drilling into the fiber layer at the bottom of Z, the bearing capacity of the bottom is relatively low, and wrinkles and burrs are prone to occur under axial action. Therefore, during the correction process, it is necessary to make the drill bit have a polishing effect to ensure that the accuracy requirements of the hole meet the actual requirements.

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