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XRS Pro Series

The best way to communicate what we do is through our exhibitions. By browsing our galleries, you might get an idea of ​​our signature touch. Contact us today.

User-Friendly Design
Computer screen
Table/Bed
Bucky Stand



 

Targeted treatments:

Medical Imaging

Multilingual Functionality
English
French
Spanish
Portuguese
Chinese
Arabic

 

Specifications
Voltage: 208-240 VAC 
Weight & Size: 550 Kg 
Power: 6kW-45kW;100-150 Amps

Wavelength: 0.01-10 nm
System warranty: Included

Technology involved
X-ray
Control Unit
Computer
High Voltage Generator
Grid
Collimator
Receptor

 

Licensed Professionals Grade
Doctors
Trained Medical Staff

XRS Pro:
Medical Imaging

The machine produces a small burst of radiation that passes through your body. The radiation records an image on photographic film or a special detector. Different parts of the body absorb the x-rays in varying degrees.

According to the National Health Institute, X-rays are a form of electromagnetic radiation, similar to visible light. Unlike light, however, x-rays have higher energy and can pass through most objects, including the body. Medical x-rays are used to generate images of tissues and structures inside the body. If x-rays traveling through the body also pass through an x-ray detector on the other side of the patient, an image will be formed that represents the “shadows” formed by the objects inside of the body.

One type of x-ray detector is photographic film, but there are many other types of detectors that are used to produce digital images. The x-ray images that result from this process are called radiographs.

To create a radiograph, a patient is positioned so that the part of the body being imaged is located between an x-ray source and an x-ray detector. When the machine is turned on, x-rays travel through the body and are absorbed in different amounts by different tissues, depending on the radiological density of the tissues they pass through. Radiological density is determined by both the density and the atomic number (the number of protons in an atom’s nucleus) of the material being imaged. For example, our bones contain calcium, which has a higher atomic number than most other tissues. Because of this property, bones readily absorb x-rays and therefore produce high contrast on the x-ray detector. As a result, bony structures appear whiter than other tissues against the black background of a radiograph. Conversely, x-rays travel more easily through less radiologically dense tissues, such as fat, muscle, and air-filled cavities such as the lungs. These structures are displayed in shades of gray on a radiograph.

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Sales@Photononecorp.com

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Contact Us​:

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  +1 (855) 599-9399

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+33 (63) 524 0989

 
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​+225 (272) 259-3219

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