Tomosynthesis TRIZ Cases

Control unit displays tomosynthesis imaging conditions before pre-shot execution.

A patient shield system uses a sliding mechanism to adjust position relative to the x-ray tube head during imaging procedures.

A movable gantry scanning system adjusts light source and sensor positions to enable omni-angle imaging.

Distributed x-ray sources in a circular array provide parallel beam geometry to improve in-depth resolution without complex mechanical movement.

Standardizing control processes across different imaging modalities reduces system design complexity and simplifies maintenance operations.

A radiation source rotates along an arc path at less than 0.5 degree per second to obtain images with uniform angular spacing.

Inflatable chamber expands to slide a sheet along the compression surface, pulling tissue away from the chest wall for better imaging coverage.

Dynamic energy bin adjustment expands low-energy ranges where X-ray attenuation is high, reducing statistical noise in bone or metal regions.

An integrated imaging system combines tomosynthesis with molecular components for enhanced diagnostic capabilities.

Synchronized static focal spot and collimator blades counter x-ray source movement to maintain a fixed effective focal spot.

Computational synthesis of virtual X-ray images reduces radiation exposure and scanning time while enabling stereoscopic views.

Horizontal imaging stand movement resolves compression reliability issues and reduces imaging time by eliminating vertical arm frame adjustments.

A multi-mode x-ray imaging system acquires breast images in CT, tomosynthesis, and mammography configurations.

A medical x-ray apparatus sets a center direction for tomosynthesis imaging using a turning controller and support system.

A processing unit determines volume fractions of multiple materials using photoelectric and Compton scattering attenuation coefficient images.

Real-time pressure and thickness monitoring detects breast movement artifacts, enabling timely operator adjustments to preserve image quality.

A rotating analysis head adjusts between vertical and prone positions to support flexible breast examination workflows.

A color LED loop surrounding the turning axis displays operational states, resolving information loss without complicating user interaction.

A retractable X-ray detector moves into a floor storage room to clear the treatment area.

An X-ray imaging unit corrects magnification using height data to generate stitched long images.

A collimator aperture adjusts the radiation field angle during scanning to acquire depth information.

A tomosynthesis imaging control device dynamically adjusts radiation tube irradiation positions based on real-time image quality assessment.

Movable x-ray source and stationary detector operate in separate parallel planes to capture projection data.

A holding mechanism moves an X-ray tube during manual operation to acquire projection images for simultaneous fluoroscopy and tomosynthesis imaging.

Segmenting the detector into pixel groups with different energy resolutions captures dual-energy data in one pass, reducing scan duration and patient dose.

Multi-axis swinging and rotating movements orient the x-ray tube to resolve imaging precision limits in unidirectional digital tomosynthesis.

Integrated heating system warms compression surfaces to reduce patient discomfort during mammography imaging.

Simulated radiographs quantify tumor trackability via template matching to resolve markerless tracking visibility bottlenecks.

A dual-energy x-ray imaging system acquires volumetric breast data through tomosynthesis reconstruction.

A compression paddle system uses a non-rigid jacket to distribute breast imaging forces evenly.

A scanning system with a movable bed panel and repositionable X-ray tube enables comprehensive imaging across different patient postures.

Segmenting the X-ray source into a movable array allows simultaneous multi-angle acquisition, reducing diffuse radiation and improving diagnostic accuracy.

A multimodal senological imaging system uses a movable X-ray detector to capture high-quality molecular and radiographic breast images.

Dual projection X-ray imaging determines femoral torsion angles using computational analysis of two distinct geometric views.

An X-ray tomography apparatus adjusts beam intensity based on the angle of incidence relative to the tomographic layer.

Segmenting the interface into dedicated edit tools resolves the contradiction between comprehensive parameter customization and high device complexity.

Processing circuitry generates pseudo projection images from tomosynthesis volume data using a virtual focal point.

Diagnostic station links functional and morphological X-ray image data to resolve spatial correlation bottlenecks during breast diagnosis.

A flexible compression paddle distributes pressure evenly across breast tissue during x-ray imaging.

Encapsulated hydrogel breast phantom replicates tissue thermal expansion to determine safe compression heating temperatures without compromising image quality.

A radiation generation control device outputs periodic signals to drive repeated X-ray emissions from a connected apparatus.

Segmented radiation tubes detect abnormal states and permit image generation with operational units, reducing imaging time despite tube failures.

A tomographic image transmission unit automatically sends reconstructed images to external displays before operator instruction.

A mobile post mechanism moves a compression paddle relative to a detector platform, freeing upper space for breast access.

An independent x-ray tube arm rotation mechanism enables tomosynthesis without patient movement, resolving spatial conflicts with stretcher access.

A radiation source moves along a curved path to generate near real-time 3D reconstruction image data.

A rotatable holder positions filter regions to control radiation passage during imaging operations.

An X-ray inspection apparatus generates frame data for multiple tomographic planes to create a composite image.

Rotating the limiter prevents radiation leakage from adjacent tubes, improving signal-noise ratio and reducing unnecessary patient exposure.