As a new type of high-temperature protective material, high-temperature sleeving has garnered widespread popularity among major enterprises. High-temperature sleeving is primarily composed of bulky fiberglass and coated with imported silicone rubber. It is widely utilized in industries such as metallurgy, chemicals, and electric power to encase cables, hoses, oil lines, and similar components. It is capable of continuous operation in environments reaching 260°C, withstanding momentary exposure temperatures as high as 1650°C. Furthermore, it exhibits outstanding resistance to molten splash, excellent flexibility, and strong resistance to water and oil. It also possesses superior abrasion resistance and thermal insulation properties. To accommodate diverse operating conditions, high-temperature sleeving has evolved into various specialized forms.

Split-Type High-Temperature Sleeving

The material composition of split-type high-temperature sleeving is identical to that of standard high-temperature sleeving; however, it is designed for on-site installation at the facility, thereby ensuring proper sealing and structural integrity. The closure mechanism utilizes fire-resistant, flame-retardant hook-and-loop fasteners, which can be adjusted to the precise size required to ensure a tight, secure seal. This unique structural design eliminates the need to dismantle hoses or cables during installation—saving labor and expediting the process—thereby significantly enhancing equipment maintenance efficiency.

High-Temperature Thermal Tape

High-temperature thermal tape is meticulously crafted from fiberglass tape coated with an imported, heat-resistant silicone rubber compound. Its thermal protection capabilities are fully comparable to those of high-temperature sleeving. It is suitable for protecting pipelines of any size or diameter, offering a versatile solution that minimizes material waste.

As a major category within the field of high-temperature protective materials, high-temperature sleeving—through its diverse range of materials and structural configurations—effectively addresses the protective requirements of the vast majority of harsh operating environments.