In the field of tumor radiotherapy, radiotherapy equipment uses high-energy rays (such as X-rays and gamma rays) to kill cancer cells while minimizing radiation damage to healthy tissues. Tungsten alloy shielding components, with their exceptional radiation absorption capability, serve as a critical protective element in achieving this goal. The radiation energy in radiotherapy equipment is generally higher than the diagnostic-level rays used in CT machines, placing more stringent requirements on the density, stability, and structural design of shielding materials.

During the operation of a CT machine (short for Computerized Tomography X-ray Scanner), the precise projection of X-rays and radiation protection are core technical requirements, with tungsten alloy shielding components playing a pivotal role in achieving this balance due to their excellent performance. The CT machine generates images through X-ray beam tomography of the human body; inadequate radiation shielding not only threatens the health of medical personnel and patients but may also interfere with the normal operation of the equipment's precision components, making the performance of shielding components critical to equipment safety and imaging quality.

The manufacturing process of high-density tungsten alloy shielding components centers on powder metallurgy technology, combined with subsequent processing, forming a mature production workflow. The specific steps are as follows:

High-density tungsten alloy shielding components offer significant advantages over traditional lead-based shielding components in practical applications.

High-density tungsten alloy shielding components possess high density, excellent ray shielding capabilities, and non-toxic, environmentally friendly characteristics. Their application fields include the medical field, nuclear industry, and more.

High-density tungsten alloy shielding components are functional parts made with tungsten alloy as the core material, primarily used to shield various types of rays such as X-rays and gamma rays. They are widely applied in fields such as medical care and the nuclear industry.

In an era of rapid technological advancement, radiation protection has become a critical issue across various fields. Whether it’s the use of X-rays and gamma rays in medical diagnostics and treatments, the application of radiation in industrial non-destructive testing, or the development and utilization of nuclear energy in the nuclear industry, radiation has brought significant convenience to humanity while posing potential threats to human health and environmental safety. As a "stalwart guardian" in radiation protection, tungsten alloy shielding components are gradually entering the public eye, playing an increasingly vital role.

In the context of continuous advancements in modern medical technology, a variety of sophisticated diagnostic and treatment methods have brought hope to patients. However, while these technologies play a crucial role, they also introduce unavoidable radiation risks. Take radiotherapy, for example, which is a key method in cancer treatment, utilizing high-energy rays to destroy cancer cells. During this process, while the rays target cancer cells, they also affect surrounding healthy tissues. Radiotherapy can lead to radiation dermatitis, causing skin redness, itching, peeling, or even ulceration in patients; it may also result in radiation pneumonitis, leading to symptoms such as coughing, shortness of breath, and difficulty breathing. Beyond the physical harm to patients, radiotherapy may pose long-term health risks, including an increased likelihood of second primary tumors, undoubtedly making the road to recovery more challenging. Similarly, CT scans, a commonly used medical imaging method, enable doctors to clearly observe internal human structures and play a vital role in disease diagnosis. However, the X-rays used in CT scans, being ionizing radiation, can impact human cells.

With the continuous improvement of industrial automation, automated welding equipment is becoming increasingly widely used in the manufacturing industry. 

During high-temperature, high-energy arc welding, the electrode tip is subjected to multiple stresses, including intense thermal shock, electrochemical reactions, and metal evaporation. These stresses can cause tip burnout and shape degradation, ultimately impacting weld quality and production efficiency.