High-Density Tungsten Alloy Shielding Components from China Suppliers and Factory for Radiation Protection
Tungsten Alloy Radiation Shielding Applications
Non Destructive Testing (NDT) Tungsten Radiation Shielding
NDT methods may rely upon use of electromagnetic radiation, sound, and inherent properties of materials to examine samples, which includes some kinds of microscopy to examine external surfaces in detail.
Although sample preparation techniques for metallographic, optical microscopy and electron microscopy are generally destructive as the surfaces must be made smooth through polishing or the sample must be electron transparent in thickness. The inside of a sample can be examined with penetrating electromagnetic radiation, such as X-rays or 3D X-rays for volumetric inspection. Tungsten alloy radiation shielding could be used for radiation protection from the harm radiation.
Geological Well Logging
Geological well drilling is an exploration technique used mainly in the oil and gas industries. It is also known as cable logging and borehole logging.
A gamma ray source is lowered into a borehole and the radiation penetrates the rock strata. This data can then be analyzed to determine whether deposits of gas or oil are present. Tungsten alloy is used as shield the radioactive source and to act as a collimator for the gamma beam.
Pipe-line Inspection
Radiation is used to inspect welds and detect cracks in pipelines. A gamma source is mounted on a remote-controlled wheeled trolley (sometimes called a "germanium") and travels inside the length of the pipe.
A tungsten collimator is used to direct the radiation onto the target, whilst the radioactive source is housed inside tungsten shielding.
Why Use Tungsten Alloy Radiation Shielding?
When designing tungsten radiation shielding, it will be calculated according to thickness of shielding material to get total weakened multiple for layers of shield.
- K: Shield weakened multiple
- △ 1/2: The tungsten nuclear radiation shielding material of the half-value layer values
- d: Shielding thickness, with the half-value layer thickness of their units, you need to half-value layer thickness of the quality of translation into the thickness of the material, divided by the density of the material can be obtained.
In this way, tungsten alloy radiation shielding could be much thinner to have the same protection ability compared with other material such as lead or Al2O3.
Frequently Asked Questions
What are the main industrial applications of tungsten alloy radiation shielding?
Tungsten alloy radiation shielding is widely used in Non-Destructive Testing (NDT), geological well logging (borehole exploration for oil and gas), and pipeline inspection systems.
How is tungsten alloy shielding utilized in Non-Destructive Testing (NDT)?
In NDT, penetrating radiation such as X-rays or 3D X-rays is used for volumetric inspection of components. Tungsten alloy shielding is utilized to protect operators and equipment from harmful penetrating radiation.
What is the function of tungsten alloy in geological well logging?
In borehole and cable logging, tungsten alloy shields the radioactive gamma source and serves as a collimator to direct the gamma beam into rock strata to detect oil or gas deposits.
How does tungsten shielding work in pipeline inspections?
A gamma source is mounted on an internal pipe trolley to check welds and cracks. Tungsten housing shields the radioactive source while a tungsten collimator precisely directs radiation at the target area.
Why can tungsten alloy radiation shielding be made thinner than lead?
Due to its high density and favorable half-value layer values, tungsten alloy provides equivalent or superior radiation attenuation with significantly reduced thickness compared to materials like lead or Al2O3.