Radiation Diagnostics For Dentistry TRIZ Cases

Automated dental X-ray systems adjust exposure parameters based on patient dentition characteristics to optimize image clarity.

An optical sensor detects the origin position of a light blocking plate to ensure precise movement and accurate image composition.

A dental x-ray sensor holder uses a buccal arm and sliding interoral position arm to center the digital sensor inside the patient's mouth.

A dental x-ray imaging system merges temporally sequential individual images to create a final exposure.

Resin welding joins signal cable jackets to connection units, creating a robust mechanical bond without adhesive layers.

Pneumatic suction in an evacuation chamber secures diverse x-ray sensors to a compact holder, eliminating bulky straps and adhesives.

A panoramic radiographic apparatus adjusts X-ray exposure parameters automatically using real-time attenuation measurements from a scout scan.

A direct digital dental x-ray detector uses disposable cartridges to capture high-resolution images without scintillator blur.

Visual reference indicators on a modular sensor holder resolve alignment precision versus device complexity contradictions in veterinary dental imaging.

A dental radiography apparatus positions a virtual projection center behind the X-ray focal spot to align rotation axes and achieve uniform magnification.

Spring arms tighten a strap around the sensor to eliminate adhesive application time while ensuring accurate positioning for dental imaging.

A panoramic dental radiographic apparatus acquires scout images using opposed rotation directions for the X-ray source and detector.

A radiation sensor holder uses a ring guide adapter to align sensing devices precisely.

An X-ray CT apparatus accepts image data from external scanners to generate scout views for local region positioning.

Intraoral x-ray sensor converts high-bit depth grayscale data to low-bit format for wireless network transmission.

A motion-based interlock system measures tubehead velocity and acceleration to control x-ray exposure timing.

A dental sensor holding apparatus uses a specialized shaft to position imaging sensors inside the oral cavity.

Spy equipment on the USB link detects sufficient radiation dose and triggers a stop signal to the X-ray source, reducing patient exposure time.

Movable X-ray detector adjusts distance to intraoral irradiator, eliminating ghost images and reducing radiation exposure dose.

Minimizing dead space on the mesial side of an intraoral radiographic sensor resolves patient discomfort during posterior arch imaging.

A medical X-ray apparatus restricts beam width and position to target specific diagnostic regions.

Aligns scintillator and sensor outlines in a vertical stack to minimize non-imaging areas while underfill layers reduce stress concentration.

Spring arms mechanically retain the sensor in a protective sheath, eliminating adhesive application time and reducing oral contamination risks.

Turnable arm parts reposition imaging means around a stationary patient, resolving the contradiction between device size and imaging quality.

A sensor holder uses moveable retention guides to secure dental radiation sensing devices of varying sizes.

Asymmetric keyed interfaces center dental x-ray receptors within alignment rings for precise positioning.

Local flexible overmouldings on a hard plastic housing resolve the trade-off between mechanical strength and patient comfort while absorbing shock.

A single sensor dental x-ray imaging system uses a linear direct conversion detector and manipulator to capture multiple image types.