Carbon fiber fabric serves primarily to enhance composite materials, increasing their tensile strength, stiffness, and fatigue resistance. Compared to non-woven carbon fiber felt, carbon fiber fabric offers superior directional properties, enabling customization of fiber orientation according to application requirements to optimize mechanical performance. Additionally, the regularity of the fabric structure enhances interlaminar shear strength and reduces porosity, thereby enhancing overall material performance.

Carbon fiber braided sleeves, with their unique structural design, provide uniform mechanical performance and excellent abrasion resistance. This structure allows the sleeve to offer support in multiple directions, making it suitable for reinforcing components that require enhancement around complex shapes, such as pipes and shafts. Braided sleeves are also easy to install, adaptable to various diameters, and maintain good structural integrity even under conditions like thermal expansion or vibration.

When selecting carbon fiber ropes as reinforcement materials, factors to consider include the rope's linear density, tensile strength, stiffness, abrasion resistance, and resistance to environmental influences. Additionally, the braiding structure of the rope should be taken into account as it affects the rope's flexibility and load distribution. For specific applications, compatibility with the resin matrix and performance under the required application conditions should also be considered.

The primary difference between carbon fiber 3D fabric and traditional 2D fabric lies in their spatial structure. 3D fabric is constructed by interweaving fibers in three dimensions, providing higher interlaminar shear strength and better impact absorption. 3D fabric also offers better thickness and shape stability, making it suitable for complex-shaped components. Its applications are broad, especially in aerospace, automotive, and sports equipment industries, playing a significant role in enhancing component performance and reducing weight.

Carbon fiber felt, a non-woven carbon fiber product, is primarily used to provide isotropic reinforcement or as a filler material in composite materials. Its role in reinforcing composite materials is to increase the overall thickness, improve impact and fatigue performance, and enhance sound absorption and thermal insulation properties. Due to the non-directional nature of felt material, it is commonly used in applications that do not require specific mechanical directional performance. The density and thickness of the felt can be adjusted as needed to meet different performance requirements.

Carbon fiber textiles find applications in thermal management systems as thermal interface materials, heat-dissipating layers, and thermal insulation layers. With its high thermal conductivity and low thermal expansion coefficient, carbon fiber textiles are well-suited for electronics requiring effective heat dissipation. In high-temperature operating environments such as automotive engine compartments or industrial furnaces, carbon fiber textiles can serve as heat barriers to protect sensitive components from overheating damage. Furthermore, its lightweight and high-strength characteristics make it useful in heat protection systems in the aerospace industry.