A repositioning mechanism moves the source or detector outside the sterile field, reducing heavy C-arm movement during procedures.
Using the sensor’s battery hump instead of side brackets reduces tissue discomfort and keeps the x-ray path clear during imaging.
Synthetic noise-added images provide training data for X-ray denoising, helping improve clarity without acquiring scarce high-dose scans.
Beam hardening can distort tissue composition ratios; this processor uses dual-energy images, order-specific attenuation, and scatter removal.
Orthogonal low- and high-energy scout views combine diagnosis data and bone-density information while preserving patient-position correspondence.
Separate guiding sections let the two C-arm sections be serviced independently, reducing disassembly time and supporting clinical flexibility.
A first neural model selects X-ray exposure settings from an acquired frame, while a jointly trained second model restores images to limit radiation.