Radiation Diagnostic Device Control TRIZ Cases

An imaging control apparatus links radiation emitting and radiographic imaging systems via software commands and hardware signals.

A radiation imaging apparatus segments image acquisition to enable precise control over data transfer from detection cassettes.

Parallel tube arrays eliminate mechanical movement delays, suppressing artifacts while reducing imaging time.

A medical imaging table integrates a projector to display stage-specific biopsy information directly onto the patient surface.

Processing circuitry determines optimal focus size for computed tomography imaging using resolution mode and tube current parameters.

A portable radiographing device reads patient barcodes to verify identification data against stored records.

Visual indicators on the apparatus inform operators about moving parts, resolving the contradiction between efficient interlocked motion and operator safety.

Transmits imaging system event signals over a network to expose workflow information, resolving DICOM limitations on non-image data.

Dose sensors detect radiation levels to direct specific imaging detectors, eliminating manual label matching and reducing manufacturing costs.

A breathing guiding apparatus synchronizes patient respiration with imaging device capture cycles to stabilize medical examination images.

Controller warns of stopped signals to prevent re-imaging, reducing subject burden and maintaining reliability.

Photon counting energy discriminating detector housing enables multi-energy material decomposition imaging on radiography systems.

A radiation therapy system adjusts fluoroscopic imaging frequency based on real-time target position to maintain detection accuracy.

A radiography system reconstructs a 3D scene from sensor data to control radiation source and detector operations.

Actuator system adjusts X-ray scattered radiation absorption grid position to compensate for shadowing caused by elastic deformation in pivotable arms.

A processor determines maximum pitch using correlation relationships to adjust scanning parameters for multi-energy computed tomography.

Real-time feedback guides technologists to optimal breast positioning, reducing recall rates and unnecessary radiation exposure.

An X-ray imaging apparatus displays divided regions on a camera image to allow intuitive setting of irradiation conditions for stitched images.

A contactless control system tracks user body parts to adjust medical imaging regions of interest without physical interface.

Radiography apparatus selects radiation sources for designated imaging directions, eliminating the need to move or rotate the support arm during procedures.

A fluoroscopic recording button enables still or moving image capture during or after imaging.

Controls X-ray arm positioning by calculating angles between ultrasonic and radiographic spaces, resolving visibility issues in fused images.

Radiography apparatus generates energy subtraction images only upon receiving a specific request signal during continuous moving image capture.

A mammography imaging stand features a recessed contact face that accommodates arm placement and reduces abdominal pressure.

Software-generated triggers replace physical markers to adjust integration periods during gantry rotation.

A synthetic mammogram generation method processes multiple projection data sets to produce images with properties equivalent to full-field digital mammography.

Camera captures optical images to determine patient orientation, preventing misdiagnosis from bilateral symmetry in X-ray imaging.

Dynamic positioning orthogonalizes radiation relative to curved vertebral paths, resolving obscured details between adjacent vertebrae.

An X-ray reflector redirects radiation to enlarge detector space, resolving the spatial resolution trade-off in high-power imaging.

A curved movable beam-stop array adjusts slit positions to capture accurate scatter distribution in a single scan.

Replacing manual repositioning effort, the system uses intuitive touch inputs to automate C-arm alignment and reduce operational downtime.

A collision recovery system records C-arm position data to enable automatic retracement along a recorded path.

Multiple PET scanners move along an axial driving device to acquire simultaneous imaging data from distinct organ regions.

A processing unit calculates optimal patient placement on a medical imaging couch based on anatomical data and examination parameters.

A control unit displays a two-dimensional virtual plane image superimposing skin dose data with distance and angle scales.

A radiographic imaging apparatus displays symmetric breast images on divided screens for direct visual comparison.

A radiography system uses detection sensors to monitor radiation source position and processor interlock control to prohibit irradiation when misaligned.

Dynamic beam width adjustment maintains uniform radiation dosage during acceleration phases, eliminating over-scan regions.

A mobile radiographic imaging system adjusts radiation dose settings across multiple operational modes.

Tripod-mounted X-ray devices use a three-degree-of-freedom C-arm to scan laterally, resolving collision risks while maintaining personnel accessibility.

A tube current modulation system calculates dose levels based on clinical tasks and patient size to generate optimized scan protocols.

Monitors X-ray focal point displacement to detect filament deviations and axis misalignments, ensuring image quality without relying on vibration analysis.

A profiled barrel structure reduces deformation during machining, lowering manufacturing costs and improving precision.

Motorized shutters steer the X-ray beam laterally, resolving positioning precision challenges in mobile C-arm systems.

Automated evaluation algorithms analyze initial image data sets to identify findings requiring additional imaging parameters.

Three x-ray sources distribute along the z-axis to extend the longitudinal field of view and reduce cone-beam artifacts in dual-energy imaging.

Motorized shutters in the collimator adjust beam direction without moving the entire c-arm, reducing positioning errors during portable imaging.

A master unit consolidates optical data connections to multiple display units in medical imaging systems.

A mammography paddle uses a variable target setpoint to adjust compression force based on measured breast contact area.