Beyond being a key raw material for transparent heat-insulating coatings, films, or glass, cesium tungsten bronze also serves as an important production material for heat-storage fibers, significantly enhancing the comprehensive performance of functional fibers.

As one of the most typical functional fibers, heat-storage fibers can have an appropriate amount of nano cesium tungsten oxide powder added during production as a modifier to further enhance their heat-storage capabilities.

In the nuclear industry, tungsten alloy has a wide range of applications, including nuclear reactors, radioactive waste management, nuclear fuel transportation, and equipment shielding. With its high density, excellent radiation shielding efficiency, and stable mechanical properties, tungsten alloy shielding cans offer significant advantages over traditional shielding materials, emerging as an ideal alternative.

Tungsten alloy shielding cans, owing to their high density, excellent radiation shielding performance, and mechanical stability, have notable applications in the medical field. Particularly in nuclear medicine, radiotherapy, and medical equipment manufacturing, these cans enhance the safety and reliability of medical procedures with their efficient radiation protection and compact design.

As a vital piece of equipment in the field of radioactive material protection, the tungsten alloy shielding can, with its unique material properties and structural design, is widely applied in nuclear energy, medical, and research fields.

Tungsten alloy shielding can is a specialized protective container designed with high-density alloy materials to isolate and attenuate the radiation energy emitted by radioactive substances. It is widely used in nuclear energy, medical, and research fields. Its core value lies in the synergistic optimization of material properties and structural design, achieving efficient shielding of high-energy particles such as X-rays, gamma rays, and neutrons, while also ensuring operational safety, environmental adaptability, and long-term stability.

In the era of rapid technological advancement, radiation has permeated fields such as medicine, research, and industry.

In today's era of rapid technological advancement, radiation has become an unavoidable part of our lives. Medical radiography is a common scenario where we encounter radiation; for instance, X-ray examinations clearly reveal the condition of human bones, aiding doctors in diagnosing fractures and lung diseases. Similarly, industrial flaw detection employs techniques like radiographic and ultrasonic testing to detect cracks or pores in components of aerospace equipment and automobiles without damaging the workpiece. However, the radiation sources used in flaw detection, such as X-rays and gamma rays, are highly radioactive. Without proper protection, operators exposed to radiation over long periods may suffer radiation damage. Thus, radiation protection is crucial, and the tungsten alloy shielding can serves as a "sturdy shield" safeguarding us from radiation harm.

Due to its high melting point, high strength, and corrosion resistance, black tungsten wire has important applications in lighting, electronics, high-temperature industrial applications, medical treatment, welding, photovoltaics, and emerging fields. Although some traditional uses have been impacted by new technologies, its irreplaceable nature in high-temperature, high-precision applications ensures continued demand.

The main difference between black tungsten wire and cleaned tungsten wire lies in surface treatment and appearance: black tungsten wire has a gray-black color due to the presence of graphite emulsion on its surface; cleaned tungsten wire is black tungsten wire that has been alkaline washed or electrolytically polished, resulting in a silvery-white surface with a smooth finish, making it suitable for high-precision and high-temperature environments. Each type has its own advantages depending on the application requirements.