A C-Arm machine categorizes itself as an advanced medical imaging device that works on the basic premise of the X-ray technology. They are fluoroscopy machines and are colloquially called as image intensifiers. However, technically, the image intensifier is only a part of the machine and it is called a detector.
The basic principle of a C-arm machine involves emitting X-rays from one side, which pass through the body and are captured by an image intensifier on the other side. This produces real-time fluoroscopic images, allowing medical professionals to monitor procedures dynamically.
A C-arm X-ray is a mobile medical imaging device that uses X-ray technology to produce high-resolution images in real time. It's named after the C-shaped arm that connects the X-ray source to the detector.
C-arm X-rays are used in a variety of medical procedures, including: orthopedic procedures, cardiac and angiography studies, therapeutic studies, pain management, and emergency procedures.
C-arm X-rays are essential in surgical settings because they provide real-time visualization of internal structures, which helps surgeons monitor progress and perform more accurate procedures. C-arm X-rays are also mobile, which gives surgeons the flexibility to take images of the patient's whole body from different angles.
The radiation range of the c-arm machine is more than 2 meters, and the radiation amount is very small at a distance of 2 meters from the c-arm machine. Therefore, the safe distance of the c-arm radiation in the operating room is more than 2 meters.
To ensure consistent performance and longevity, it's important to follow a preventative maintenance schedule for your C-arm X-ray machine.
OEC C-arms provide orthopedic imaging with a large field of view optimized to clearly visualize orthopedic anatomy, such as the entire long bone femur or minute fractures in extremities. A clear display with comfortable viewing can easily show AP and lateral views, enabling efficient procedure planning.
With ionising radiation produced by a standard C-arm, this is roughly equal to equivalent doses of 0.113 μSv per lateral image and 0.043 μSv per PA image 16. Keenan et al. 26 found even lower levels in a simulated manipulation of a child's forearm using a manikin with scatter properties similar to human tissue.
C-arms employ multiple joint connections that enable multidirectional movement and support. This design ensures excellent stability and precision during examinations or surgeries. The robust construction guarantees accurate positioning without compromising patient safety or image quality.
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