Application of Cemented Carbide rod in Aerospace Industry

In the aerospace field, cemented carbide rods, with their excellent performance characteristics, make it an ideal material for manufacturing high-temperature parts, wear- and corrosion-resistant parts, high-strength structural parts and other key components.

1. Manufacture of high-temperature parts

Engine components: Tungsten carbide bars are often used to manufacture key components of aircraft engines, such as turbine blades and nozzles, because of their high hardness and high-temperature oxidation resistance. These components are required to work at extremely high temperatures and pressures, and Tungsten Carbide Rods are able to maintain their structural stability and safety.

Combustion chamber components: Combustion chambers are subject to harsh environments, high temperatures and strong chemical corrosion. Cemented carbide rods are able to resist these extreme conditions and ensure the long-term stable operation of combustion chamber components.

2. Wear and corrosion resistant components

High-speed cutting tools: In the aerospace manufacturing process, it is often necessary to cut and process materials with high hardness and high strength. The cutting tools made of cemented carbide bar have excellent wear resistance, which can significantly improve the cutting efficiency and the service life of the tools.

Corrosion-resistant parts: Aerospace vehicles may encounter various corrosive environments during flight, such as high humidity and high salinity. Because of its excellent corrosion resistance, Cemented Carbide Bar can be used to manufacture parts that need to work in corrosive environments for a long time, ensuring the overall stability and safety of the aircraft.

3. High-strength components

Load-bearing structural components: In the aerospace field, the strength and stiffness of structural components are essential to ensure the safety and reliability of the vehicle. Tungsten carbide round bars can be used to manufacture high-strength and high-stiffness load-bearing structural parts, such as the fuselage and wing beams of the aircraft due to their excellent mechanical properties.