Alkadiene cryogenic thermal insulation materials in cryogenic environments feature a lower coefficient of thermal conductivity, lower density, and excellent elasticity without cracking. They offer effective insulation, outstanding flame-retardant performance, high moisture resistance, and long-lasting durability.
It is widely utilized in the production of liquefied natural gas (LNG), pipelines, petrochemical industry, industrial gases, agricultural chemicals, piping and equipment insulation projects, and other thermal insulation environments requiring cryogenic performance.
Due to the unique closed-cell structure and polymer blend formulation, the low-temperature elastomeric materials are highly resistant to water vapor permeation. This flexible ULT insulation system does not require the installation of an additional moisture barrier, providing continuous resistance to moisture penetration throughout the entire thickness of the product.
1. What are the main benefits of Alkadiene cryogenic thermal insulation materials?
They offer a lower coefficient of thermal conductivity, lower density, excellent low-temperature elasticity, resistance to cracking, superior flame-retardant properties, high moisture resistance, and long-lasting durability.
2. Does this flexible ULT insulation system require a moisture barrier?
No, it does not. The unique closed-cell structure and advanced polymer blend formulation render the material highly resistant to water vapor permeation, providing continuous moisture protection across its entire thickness.
3. How does this system handle low-temperature expansion and shrinkage?
Unlike conventional rigid systems, this system uses low-temperature elastomeric material installed in layers according to recommended reserved lengths. Its natural elasticity allows longitudinal expansion and shrinkage, eliminating the need for fiber expansion fillers.
4. Where are these cryogenic insulation materials commonly used?
They are widely applied in liquefied natural gas (LNG) production, petrochemical pipelines, industrial gas facilities, agricultural chemical piping, and various industrial equipment operating in cryogenic environments.
5. How does the material prevent structural cracking under stress?
The material possesses excellent internal shock resistance, enabling it to absorb and disperse external stresses locally. This design prevents cracking caused by stress concentration and physical impact, which frequently affects rigid foam alternatives.