Carbon fiber braided sleeve is made of 3K,6K,12K fiber yarn by special weaving process, it is a biaxial braid of precisely oriented fibers of maximum stiffness, torsial stability and compressive strength.

Aramid Carbon Hybrid Sleeving is a high-performance braided composite sleeve engineered from a combination of carbon fiber and aramid (Kevlar®) fiber. This hybrid construction integrates the rigidity and lightweight strength of carbon fiber with the superior impact resistance and toughness of aramid fiber. The braided structure allows radial expansion for easy installation over tubes, rods, and structural cores before resin infusion or composite lay-up. Once cured with compatible resin systems such as epoxy, polyester, or vinyl ester, the sleeve forms a strong, lightweight reinforcement layer suitable for high-performance structural applications. Compared to standard carbon fiber sleeve, Aramid Carbon Hybrid Sleeving provides improved resistance to cracking and impact damage while maintaining excellent stiffness-to-weight ratio. It is widely used in composite manufacturing, including automotive drive shafts, UAV structures, sporting equipment, industrial shafts, and aerospace components. Custom diameters, braid angles, and carbon-to-aramid ratios are available to meet specific engineering requirements.

Fiberglass Carbon Hybrid Sleeving is a high-performance braided composite sleeve manufactured from a combination of carbon fiber and fiberglass yarns. This hybrid construction integrates the stiffness and structural strength of carbon fiber with the impact resistance and durability of fiberglass. The braided tubular structure allows radial expansion, making it easy to install over tubes, shafts, and structural cores before resin infusion or composite curing. Once combined with compatible resin systems such as epoxy, polyester, or vinyl ester, the sleeve forms a lightweight yet mechanically stable reinforcement layer. Compared to pure carbon fiber sleeve, fiberglass carbon hybrid sleeving offers improved resistance to cracking and impact damage while maintaining excellent stiffness-to-weight performance. It is widely used in automotive components, industrial rollers, composite drive shafts, marine structures, and sporting equipment manufacturing. Custom diameters, braid angles, and carbon-to-glass fiber ratios are available to meet specific engineering requirements.