The application of tungsten alloy collimators in the medical field primarily focuses on diagnostic imaging and radiotherapy, owing to their high density, excellent radiation attenuation performance, heat resistance, and mechanical strength, making them essential components in medical equipment. Compared to traditional lead materials, tungsten alloy is more environmentally friendly, offers higher shielding efficiency, and enables thinner, lighter designs, making it ideal for space-constrained devices.

Tungsten alloy collimator is an optical or radiation control device made from tungsten alloy material, primarily used to guide and limit the direction and range of particle beams, wave beams, or radiation beams. Renowned for its high density, excellent radiation attenuation performance, heat resistance, and mechanical strength, it outperforms lead materials in efficiency and environmental friendliness, with applications spanning medical, industrial, and scientific fields.

The use of tungsten wire as a reinforcing element in composite material stiffeners represents a high-performance material solution that combines the characteristics of tungsten wire—high strength, high modulus, and high-temperature resistance—with the advantages of composite materials, such as lightweight and strong design flexibility. Below is a detailed analysis of the application of tungsten wire in composite material stiffeners:

The applications of tungsten wire as reinforcement in composite materials primarily stem from its unique physical and chemical properties, offering significant advantages in composite systems requiring high strength, heat resistance, corrosion resistance, or special electromagnetic properties. Below is an analysis of its specific application scenarios and advantages:

The application of tungsten wire in electron tube heaters is primarily due to its high melting point, high resistivity, excellent thermal stability, and chemical inertness, making it an ideal material for the heated cathode (heater) in electron tubes.

Tungsten wire plays a crucial role in high-temperature furnace heating materials. Its high melting point, excellent electrical conductivity, chemical stability, and workability make it a core component for efficient and stable heating in high-temperature furnaces.

Gas discharge lamps, such as high-pressure mercury lamps and xenon lamps, play an important role in industrial lighting, stage lighting, automotive headlights, and other fields. As a key electrode material, tungsten wire is a core element in ensuring the stable and efficient operation of gas discharge lamps.

Tungsten halogen lamps are highly efficient light sources that utilize tungsten as the filament. The reason for choosing tungsten as the filament is closely related to its unique physical and chemical properties.

Incandescent lamps are traditional lighting devices that produce light by heating the filament to a high temperature. Tungsten wires, due to their unique physical and chemical properties, are the preferred material for incandescent lamp filaments.

The durability of tungsten wire in high-temperature furnaces depends primarily on its material properties, environmental conditions, and usage.