+86-13732282311
merlin@xcellentcomposites.com
Let the world benefit from composite materials!
Fiberglass Braided Sleeve
Xcellent Composites' fiberglass braided sleeves are a high-performance insulating material made from chemically modified E-glass fiber yarn. These sleeves can withstand continuous heat temperatures of up to 700°C and short-term heat temperatures of 750°C, making them ideal for use in extreme temperature environments. Additionally, due to the significant amount of trapped air within the base fibers, the glass fiber sleeves also exhibit excellent heat insulation properties.
Xcellent Composites' fiberglass braided sleeves are widely used in the electronics, electrical, aerospace, automotive manufacturing, and other industrial sectors due to their outstanding performance and comprehensive range of specifications. Whether as protective layers for wires and cables or as thermal insulation barriers, these sleeves provide reliable protection and long-lasting performance, assisting customers in solving various challenging technical issues.
Features of Fiberglass Braided Sleeve
| 01. | High temperature resistance: | The high temperature fiberglass sleeving is capable of withstanding continuous high temperatures, typically up to 500°C or higher, suitable for use in extreme temperature environments. |
| 02. | Electrical insulation: | Provides excellent electrical insulation protection to prevent electrical failures. |
| 03. | Chemical stability: | Resistant to most acids, bases, and solvents. |
| 04. | Physical strength: | The high-strength woven structure ensures good tensile and abrasion resistance. |
Get Price of Composite Materials
Get Price of Composite Materials
E-mail:
Address:
NO.61, XIANGYANGJIAYUAN, XIAOSHAN, HANGZHOU, CHINA
Related Composite Materials
Related Composite Materials
Carbon Fiber Spread Tow Fabric
Spread tow fabric is a fabric woven using spread yarn and is a new type of carbon fiber reinforced material. This fabric has characteristics such as low yarn bending, low surface density, good lay-flat properties, and high design flexibility.
1414 Aramid Fiber Woven Fabrics
Xcellent Composites produces aramid fabrics primarily using para-aramid 1414, and can design them into various fabric structures such as plain, twill, or satin weave, as well as more complex weaving patterns to adjust their mechanical properties and aesthetic characteristics.
Fiberglass Woven Fabric
Xcellent Composites produces a series of fiberglass woven fabrics designed for various applications, including fabrics for electronic printed circuit boards, expansion fabrics, and filter fabrics.
Basalt Fiber Woven Fabric
Basalt mesh fabric is made by twisting basalt fibers and then applying a resin coating. The mesh structure enhances the fabric's stability and durability, making it suitable for reinforcing concrete and road repairs.
Carbon Fiber Spread Tow Fabric
Spread tow fabric is a fabric woven using spread yarn and is a new type of carbon fiber reinforced material. This fabric has characteristics such as low yarn bending, low surface density, good lay-flat properties, and high design flexibility.
1414 Aramid Fiber Woven Fabrics
Xcellent Composites produces aramid fabrics primarily using para-aramid 1414, and can design them into various fabric structures such as plain, twill, or satin weave, as well as more complex weaving patterns to adjust their mechanical properties and aesthetic characteristics.
Fiberglass Woven Fabric
Xcellent Composites produces a series of fiberglass woven fabrics designed for various applications, including fabrics for electronic printed circuit boards, expansion fabrics, and filter fabrics.
Basalt Fiber Woven Fabric
Basalt mesh fabric is made by twisting basalt fibers and then applying a resin coating. The mesh structure enhances the fabric's stability and durability, making it suitable for reinforcing concrete and road repairs.
Composites Knowledge Hub
Composites Knowledge Hub
Tel:
86-13732282311
E-mail:
merlin@xcellentcomposites.com
Copyright © Hangzhou Xcellent Composites Limited. All Rights Reserved.