Ceramic fiber paper is a high-performance insulation material made from ceramic fibers, named for its lightweight and thin characteristics. This material is widely used in industrial applications due to its excellent high-temperature resistance, corrosion resistance, and insulation properties. This article will provide a detailed introduction to the parameters, features, manufacturing process, and applications of ceramic fiber paper.
Thickness: 0.410 mm
Density: 260–320 kg/m³
Operating Temperature: Up to 1,200°C
Ceramic fiber paper can withstand temperatures up to 1,200°C, allowing it to easily handle various high-temperature environments and demonstrating strong thermal stability. This feature makes it highly effective in high-temperature industrial applications, where it can operate stably over long periods without frequent replacement, significantly reducing maintenance costs.
With a low thermal conductivity, ceramic fiber paper effectively reduces heat transfer and loss, maintaining stable internal temperatures. This characteristic makes it highly efficient for insulation applications, significantly improving energy utilization efficiency, reducing energy consumption, and making it suitable for various insulation scenarios.
Ceramic fiber paper is primarily made from inorganic materials, giving it excellent electrical insulation properties. This makes it widely applicable in electrical and electronic equipment, effectively preventing current leakage and improving the safety and reliability of devices.
Ceramic fiber paper has highly stable chemical properties, allowing it to effectively resist erosion from acidic and alkaline substances. This feature makes it highly suitable for industries with strong corrosive environments, such as chemical and petrochemical industries, where it maintains stable performance over the long term, extends service life, and lowers maintenance costs.
Ceramic fiber paper is primarily made from ceramic fiber wool with low shot content and undergoes the following series of processes:
Pulping: The ceramic fiber wool is beaten into a pulp to ensure uniform fiber dispersion.
De-sludging: Impurities are removed from the pulp to ensure fiber purity.
Pulp Blending: The concentration and composition of the pulp are adjusted as needed.
Fourdrinier Forming: The pulp is evenly distributed on a Fourdrinier wire to form a thin fiber layer.
Vacuum Dehydration: Excess water is removed through vacuum suction, allowing the fiber layer to take initial shape.
Drying: The formed fiber layer is dried to remove remaining moisture.
Cutting: The dried fiber layer is cut into the desired dimensions.
Rolling: The cut ceramic fiber paper is rolled and packaged for easy transportation and use.
Ceramic fiber paper can be used to prevent thermal short circuits, avoiding abnormal heat conduction within equipment and improving safety and reliability.
Ceramic fiber paper can be made into insulation sealing gaskets for high-temperature equipment, preventing heat leakage and improving insulation efficiency.
Ceramic fiber paper can be used to fill expansion joints, preventing cracks in high-temperature equipment during thermal expansion and contraction, thereby extending service life.
Ceramic fiber paper can be used to isolate high-temperature materials, preventing sintering under high temperatures and maintaining material performance and structure.
Ceramic fiber paper can be made into punching sheets for insulating and protecting household heating appliances, improving safety and service life.
Ceramic fiber paper can be used as thermal resistance materials in vehicles, such as in mufflers, exhaust systems, and heat shields, improving thermal management and reducing noise.
Ceramic fiber paper can be used as sealing gaskets in molten metal applications, preventing high-temperature metal leakage and improving equipment safety and reliability.
Ceramic fiber paper can serve as a flexible insulation material for high-temperature pipelines, preventing heat conduction and improving insulation efficiency.
Ceramic fiber paper can be made into high-temperature gaskets for sealing and insulating high-temperature equipment, enhancing performance and reliability.
Ceramic fiber paper can be used for high-temperature filtration, removing impurities from high-temperature gases and improving gas purity and equipment operational efficiency.
With its excellent high-temperature resistance, outstanding insulation performance, good electrical insulation properties, and strong corrosion resistance, ceramic fiber paper is widely used in industrial applications. Through advanced manufacturing processes, ceramic fiber paper meets the demands of various high-temperature environments, providing reliable insulation solutions for users. It is hoped that this information will help you better understand ceramic fiber paper and make informed choices in practical applications.
