Tomosynthesis TRIZ Cases

See how inverted bracket storage with vertical slots and wheeled mobility resolves paddle acces

Independently energized x-ray emitters enable compact stationary 3D tomosynthesis with fast acquisition, low dose, and high image quality.

Fixed collimators matched to each x-ray focal spot remove in-scan adjustments, shortening tomosynthesis exams and reducing blur and exposure.

A lift-swing gantry with transfer wheels and pneumatic supports speeds X-ray positioning in uneven rescue spaces while preventing accidental movement.

Real-time proton path tracking and X-ray imaging improve tumor targeting accuracy while limiting radiation damage to surrounding tissue.

A drone-held X-ray tube adjusts SID and tube angles around obstacles, enabling faster setup and more useful chest and cervical imaging.

Localized air channels and a heat pump keep detector cameras below temperature limits while preserving patient comfort in nuclear medicine scans.

Sensors on the compression arm auto-rotate display screens and pre-position imaging components to cut setup time and technologist strain.

A U-shaped protective shield stays aligned with the moving X-ray source to prevent head collisions during high-speed 3D mammography.

Multiple synchronized intra-oral X-ray views are reconstructed into 3D tooth images, improving fracture detection with lower dose than CBCT.

A telescopic CT scanning section moves axially to fit ambulance space limits while extending scan coverage without heavy vehicle modifications.

Reference detector count maps and angle-based fitting improve AEC dose calculation in wide-angle tomosynthesis while limiting radiation exposure.

Virtual tomographic calibration images correct pixel-level detector variation and low SNR, improving fast low-dose dental scans.

Dynamic preprocessing filters based on recording parameters improve spatial resolution consistency and enable user-defined image flavors.

An inflatable transparent paddle jacket spreads breast compression more evenly, improving tissue coverage, comfort, and image quality.

Reference detector count maps and scout-image density analysis improve wide-angle tomosynthesis dose calibration despite heel effects and projection shifts.

Discrete beam angles and spectral detection separate scatter from primary x-rays, enabling faster 3D imaging with lower dose.

Conformable foam compression stabilizes the breast more evenly, reducing discomfort while improving tissue coverage and tomosynthesis image quality.

Sensor-guided breast compression adjusts force and positioning in real time to improve tissue coverage, image quality, and patient comfort.

A chest-wall-contoured detector and rotating anti-scatter grid expand breast tissue coverage and improve mammography image quality.

Radiopaque upper and lower markers track foam paddle deflection to measure local breast thickness for better exposure control and image quality.

A plane X-ray array source replaces mechanical dithering to widen projection coverage, lower dose, and improve breast tomosynthesis reconstruction.

Limited-angle tomosynthesis adds depth to dental x-ray imaging, reducing anatomical overlap and dose compared with CBCT.

Curved access surfaces in a mammography compression paddle improve technician hand access, breast positioning, and patient comfort.

A non-rigid paddle jacket redistributes mammography compression more evenly, reducing discomfort and image artifacts while preserving tissue coverage.

By excluding obstructive image regions from tomosynthesis reconstructions, this case improves anatomical visibility and cuts radiologist review time.