Patient Positioning For Diagnostics TRIZ Cases

A veterinary CT scanner moves the gantry along a linear guide relative to a stationary platform, eliminating complex coordination and reducing animal stress.

A compressive sensing absorber scatters gamma rays through a random material pattern to enable high-resolution molecular breast imaging.

Nesting the clip inside the rail reduces patient hindrance while maintaining operational ease.

A fixed beam irradiation source paired with a rotatable patient support platform enables precise hadron beam delivery.

A stationary patient table supports a longitudinally and transversely movable image receptor that tracks the X-ray generator.

Aligning the jaw region within a flat-based cylindrical core volume reduces radiation dosage while maintaining image quality.

Dual crystal array layers with distinct coupling media transmittance enable precise depth of interaction determination in medical imaging detectors.

A CT top plate control system fixes the bed position during partial region scans.

Thermo-composite sandwich layers replace conductive carbon fibre to eliminate MRI interference while maintaining structural strength.

A radiological apparatus uses a modular chassis to position X-ray components for flexible clinical operation.

A patient supporting device uses asymmetric mounting geometry to position a platform at various angles relative to a treatment machine.

A control unit calculates bite support orientation from panoramic images to align the region of interest for tomographic imaging.

A PET-CT correcting unit aligns images by calculating couchtop positions in X-ray CT data and estimating corresponding positions for PET scans.

A processing device identifies stored contrast-enhanced images by matching current fluoroscopy parameters to pre-acquired settings.

Haptic feedback on a medical imaging table prevents radiation exposure and equipment collisions.

A hybrid medical apparatus combines imaging and irradiation units sharing a common isocenter to enable simultaneous three-dimensional high-resolution imaging.

An electric hoist mounted on a medical imaging device retracts a cable to lift patients between supine and seated positions.

Shortened source-to-axis distance creates narrower rays, resolving precision limits in Tomotherapy while reducing healthy tissue exposure.

A mammography apparatus synchronizes breast compression plate rotation with x-ray source movement to acquire 3D image data.

An X-ray irradiation controlling device determines main-shot conditions using reference pixel values from a pre-shot radiograph.

Control unit maintains previous image capturing position data to streamline long-length imaging operations.

Automated gantry height adjustment system tracks patient breast levels to eliminate manual repositioning delays during repeat mammography exams.

Correction factors derived from miscentering distances improve measurement precision and optimize radiation dose administration.

Independent rotation of detector units resolves collision risks while maintaining high image resolution.

A mammographic control circuit calculates irradiation dose using pre-exposure feedback to adjust radiation energy.

Adjustable occipital support structure stabilizes patient head positioning, reducing radiation exposure from movement artifacts.

A gas spring raises a heavy support structure cover while a latch holds it open, resolving access trade-offs.

Computed pose trajectories generate synthetic fluoroscopic sequences that guide patient repositioning without additional radiation dose.

Integrated cameras and displays on the detector housing deliver live region-of-interest views, eliminating manual repositioning during imaging.