Digital Radiography RT-DR

Radiation source:
The same radiation sources are used as in traditional radiography, such as X-rays or gamma rays.

Digital detector:
Radiation passing through the inspected object is captured by a digital detector, which can be fixed or wireless.

Image processing:
The detector converts the radiation into an electrical signal, which is transmitted to a computer.

Imaging and analysis:
The digital image is displayed on a computer screen, allowing for analysis, archiving, and sharing.

Advantages of Digital Radiography (DR):

• Faster inspection time: The image is available almost immediately after exposure.

• Higher image quality: Digital image processing enables enhanced quality and contrast.

• No chemical processing required: There is no need for chemicals to develop the image.

• Easier archiving and sharing: Images are stored digitally, simplifying data management.

• Image post-processing capabilities: Digital editing allows for improved detail visibility and noise reduction.

• Reduced radiation dose: In some cases, the radiation dose can be lowered while maintaining good image quality.

Applications of Digital Radiography (DR):

• Industrial inspections: Welds, castings, composite materials.

• Medicine: Imaging of bones, lungs, abdomen, and also used in dentistry.

• Materials testing: Assessing the structural integrity of materials.

Direct (DR) vs. Indirect (CR) Digital Radiography:

DR (Direct):
The image is generated directly on a digital detector and transmitted to a computer.

CR (Computed Radiography / Indirect):
The image is first stored on a phosphor imaging plate, then read by a laser scanner and converted into a digital image.

In summary, Digital Radiography (DR) is an advanced imaging method offering a range of advantages over traditional radiographic techniques, both in medical and industrial applications.