2B Surface Aluminized Zinc Heat Reflection Coils

Product Specification

Aluminum-coated zinc has excellent thermal reflectivity: enabling energy conservation and material protection
In the industrial materials field, aluminum-coated zinc holds an important position due to its numerous excellent characteristics. Among them, the excellent thermal reflectivity is particularly valuable in terms of energy conservation and material protection, providing strong support for the development of various industries.
From a principle perspective, the surface of aluminum-coated zinc steel is smooth and flat, with a high reflectivity of infrared rays in the sunlight. This characteristic is particularly significant in the construction field. When aluminum-coated zinc steel is used as a roofing material, it can effectively reflect solar heat, reducing the temperature of the roof surface. In hot summer, ordinary roofing materials absorb a large amount of solar radiation heat, with the surface temperature reaching 60 - 70℃, while a roof made of aluminum-coated zinc steel has a surface temperature that is relatively 2 - 5℃ lower. The indoor temperature will also decrease accordingly, thereby reducing the frequency of using air conditioning and other cooling equipment, achieving energy conservation. Taking a 1000-square-meter building as an example, if aluminum-coated zinc roofing material is used, in summer, it can save approximately 10% - 15% of air conditioning electricity costs each month. In the long run, the energy-saving benefits are very considerable. At the same time, the lower roof temperature can reduce fatigue damage to the materials due to thermal expansion and contraction, extend the service life of the materials themselves, and reduce the labor and material consumption caused by maintenance and replacement.
In the field of industrial equipment manufacturing, the thermal reflectivity of aluminum-coated zinc also has practical uses. Some large industrial equipment, such as oil storage tanks and heating pipelines in the petrochemical industry, are exposed to the outside environment for a long time, especially under direct sunlight. The surface temperature of the equipment will rise sharply. This high temperature not only affects the normal operation of the equipment but also accelerates the aging and damage of the equipment. Using aluminum-coated zinc materials to make the shells or protective layers of these equipment, by taking advantage of its excellent thermal reflectivity, can effectively block part of the solar heat, keeping the surface temperature of the equipment within a relatively stable range, ensuring the safe and efficient operation of the equipment, and reducing the occurrence rate of equipment failures and maintenance costs caused by high temperatures.
In addition, in the automotive manufacturing field, the thermal reflectivity of aluminum-coated zinc can also play a role. When cars are parked outdoors in summer, direct sunlight causes the interior temperature to rise rapidly, not only affecting the riding experience of passengers but also accelerating the aging of interior components. Some parts of cars, such as the engine compartment, use aluminum-coated zinc materials, which can reflect part of the heat, reducing the accumulation of heat in the engine compartment, helping the engine maintain a more suitable operating temperature range, improving the engine's efficiency and service life.
In conclusion, the excellent thermal reflectivity of aluminum-coated zinc is not only a physical property of the material, but also brings practical benefits to multiple fields such as building energy conservation, industrial equipment protection, and automotive manufacturing. In the process of promoting each industry towards efficiency, energy conservation, and sustainability, it plays an indispensable role. With the continuous improvement of requirements for energy conservation and material performance, aluminum-coated zinc, with its advantages such as thermal reflectivity, will have a broader application prospects in the future.