★ High strength and excellent shock resistance;
★ Heat source is free of noise and air pollution;
★ Anti-oxidization;
★ Anti-corrosion,
★ Long service life,
★ Little deformation,
★ Easy installation and maintenance.
★ Saving energy
Silicon carbide heating elements boast remarkable advantages such as high temperature resistance, high thermal conductivity, and excellent chemical stability. As a result, they find extensive applications in multiple fields. The following are some of the main application areas:
Ceramics Industry: They are utilized for heating ceramic kilns. During the firing process of ceramics, it is necessary to heat the ceramic green bodies to relatively high temperatures to make them denser and achieve favorable properties. Silicon carbide heating elements are capable of rapidly increasing the temperature and maintaining a stable high temperature, ensuring the quality and firing effect of ceramic products. They can be applied to the production of various ceramic items, including daily-use ceramics, industrial ceramics, and electronic ceramics.
Glass Industry: In glass melting furnaces, silicon carbide heating elements can provide uniform heat, enabling the glass raw materials to melt quickly and evenly. This helps to enhance the quality and production efficiency of glass. Meanwhile, during the annealing process of glass, they can precisely control the temperature, eliminating the internal stress of the glass and reducing the defects of glass products.
Metallurgical Industry: In the metallurgical fields of steel, non-ferrous metals, etc., silicon carbide heating elements can be used in processes such as metal smelting, forging, and heat treatment. For instance, in the metal smelting process, the metal raw materials are heated above their melting points to make them melt and undergo refining. Before forging, the metal blanks are heated to an appropriate temperature to improve the plasticity of the metal, facilitating the forging process. In the heat treatment process, by precisely controlling the heating temperature and time, the microstructure and properties of the metal can be improved, enhancing the strength, toughness, and other characteristics of the metal materials.
Semiconductor Industry: Many processes in semiconductor manufacturing need to be carried out in a high-temperature environment, such as the annealing, oxidation, and diffusion of wafers. Silicon carbide heating elements can provide a stable high-temperature environment, meeting the stringent requirements of semiconductor processes for temperature accuracy and uniformity. This contributes to improving the performance and production yield of semiconductor devices.
Chemical Industry: In some chemical reactions that require high-temperature conditions, silicon carbide heating elements can serve as a heat source, providing the necessary heat for chemical reactions and promoting their progress. For example, in processes such as organic synthesis and catalytic reactions, precisely controlling the reaction temperature is crucial for the product yield and quality, and silicon carbide heating elements can meet this requirement.
Heat Treatment Industry: They are applied to the heat treatment of various metal parts and materials, such as quenching, tempering, normalizing, and other processes. Through the precise control of the heating temperature and cooling rate, the properties of the metal materials can be improved, enhancing the wear resistance, corrosion resistance, strength, and other aspects of the parts. They are widely used in fields such as machinery manufacturing, the automotive industry, and aerospace.