Nonwoven wipers are widely used in industry, cleaning and other fields due to their excellent abrasion resistance.
High performance fiber options:
Nonwoven wipes usually use high-performance fibers such as polypropylene, polyester, etc. These fibers have excellent abrasion resistance and resist damage caused by abrasion and friction during wiping. The choice of fiber plays a decisive role in the overall wear resistance of the wiper.
Fiber density and strength:
In the manufacture of wipers, the fibers used usually have high fineness and strength. The fine density helps improve the tightness between fibers, while the high strength ensures that the wiper is less likely to break or wear when wiping surfaces, thereby enhancing wear resistance.
Applications of melt spinning technology:
Melt spinning technology plays a vital role in the manufacture of nonwoven wipes. This technology creates a fine fiber structure, forming a uniform and tight network structure, improving overall wear resistance. Through fine fibers, melt spinning technology can also increase the degree of interlacing between fibers and improve the durability of the wiper.
Strengthening effect of hot air bonding:
Hot air bonding is one of the key steps in the manufacturing process of nonwoven wipes. This step uses hot air to bind the fibers together more firmly, creating a strong and stable fabric. This strengthening effect not only improves the overall strength, but also helps improve the wear resistance of the wiper.
Multi-layer structure design:
Some nonwoven wipes are designed with a multi-layer structure to provide more comprehensive performance by layering fibers with different properties. This multi-layer structure not only enhances the water absorption performance of the wiper, but also improves its wear resistance, allowing it to better cope with complex usage environments.
High density weaving:
The high-density fiber layout helps improve the abrasion resistance of the wiper. By increasing the tightness of the fibers, the gaps between the fibers during friction are reduced, thereby reducing wear and fatigue. This high-density weave design is especially important in industrial environments, where highly abrasive cleaning tools are often required.