Patient Positioning For Diagnostics TRIZ Cases

Multiple interval-triggered scout images are stitched into one detailed radiological view, improving planning precision while limiting deformation.

A camera-generated view inside the CT scanner opening lets technicians align upright scans without kneeling to check laser positioning.

Adaptive supports and alignment mechanisms stabilize upright radiotherapy positioning to improve reproducibility, image quality, and beam accuracy.

A side-mounted X-ray head and detector capture stitched lateral images while the patient remains supine, reducing strain and exam difficulty.

A horizontally arranged driver and brake let a CT gantry use a larger bearing without sacrificing vertical stroke or moment load support.

An actuator-driven pivot frame adjusts patient slope and height for safer myelography, better contrast flow, and spinal pressure measurement.

A detector-mounted side-lying bed enables bedside chest X-ray imaging, reducing painful patient transfers and staff workload.

LiDAR point-cloud guidance lets CT patients self-position to the gantry isocenter, reducing technologist exposure and repeat adjustments.

Discrete stationary gantry imaging and breast stabilization sharpen cone beam breast CT for detecting microcalcifications with less blur.

A horizontally movable support unit positions the examinee by height and imaging mode, simplifying X-ray structure while improving usability.

Multiple sensors with non-square fields of view are aligned along the short axis to reduce setup data gaps and improve patient positioning.

Flexible fluid containers and multi-axis actuation simulate realistic chest and organ motion for CT, MR, and imaging calibration.

Image-guided lateral table movement keeps the object aligned with the gantry axis, reducing distortion from position drift during imaging.

A single projector adjusts focus, size, and position to keep skin line and imaging condition projections clear as the compression plate moves.

Cameras and integrated displays reveal the breast beneath an opaque compression paddle, improving positioning accuracy without changing compression comfort.

A horizontally movable support unit positions the examinee by height and imaging mode, simplifying dental X-ray structure and lowering cost.

A low-dose 3D scout scan detects head position and sets a brain scan field of view that avoids eye exposure while preserving full coverage.

Interchangeable guide units keep subjects accurately aligned across X-ray imaging modes without replacing the full apparatus or repositioning.

Interchangeable guide units let one X-ray setup support multiple image types while keeping subject alignment accurate and reconfiguration fast.

A scout image and sensitivity ruler reposition the ROI to the AFOV center, improving PET detection sensitivity and diagnostic image quality.

Automated focal spot tracking aligns the x-ray tube with the anti-scatter grid and detector to reduce scatter and improve bedside image contrast.

Variable-speed HS-CBM scanning divides the bed path into sensitivity zones to avoid over-scanning and improve image quality.

Projected positioning indicators and optical sensing help align mobile X-ray sources and detectors with higher accuracy and easier setup.

Coincidence-event feedback moves the PET detector ring with subject motion to keep anatomy in view and avoid data loss without restraint.

A fold-out sterile cover lines the imaging tunnel bore to prevent contamination during image-guided interventions without repeated setup.

Distortion-corrected fisheye camera imaging tracks patient regions of interest during table movement for clearer motion detection in scans.

Resilient end fittings lock a locating bar into grooved tracks, giving MRI-compatible patient supports secure and repositionable equipment placement.