Image-Conversion/Image-Amplification Tubes TRIZ Cases

A silicate-glass MCP improves breakage resistance and supports direct CMOS digital capture without a fiber optic bundle.

Replacing brittle lead-oxide MCP glass with a silicate substrate and emission layer enables wafer-level image intensifiers with direct CMOS digital capture.

Excess anode current triggers photocathode shutdown and stored-voltage restart, cutting night vision bright-flash recovery delay.

Docking detector receptacle manages heat dissipation in portable digital X-ray detectors by extracting active cooling components to reduce device complexity.

A carbon fiber laminated holding base incorporates a grounded metal layer to shield the imaging detection panel from electromagnetic interference.

An angular position encoder tracks the C-arm orientation while a motorized drive unit executes precise re-alignment movements.

A modified grid cabinet assembly with a sliding tray holds digital sensor plates in portrait or landscape orientations.

Concave grip portions on the back surface of a radiation imaging apparatus housing balance portability and gripping performance.

Electronic positioning device moves image intensifiers along orthogonal axes via motor-driven booms, resolving manual control limitations.

Fixing the conductive shield to a buffer member prevents breakage under impact while creating a larger eddy current circuit for noise reduction.

Merging patient grab handles with height adjustment controls reduces device complexity and assembly time while improving operator ergonomics.

Spring-loaded retainers eliminate door mechanisms to prevent latch scratches and reduce wear on digital X-ray detector storage bins.

Multiple electrode modes enable battery charging at various angles, resolving flexibility and reliability trade-offs.

P-type doped ribs and textured surfaces in a MEMS electron multiplier reduce halo effects and crosstalk while minimizing electron loss.

Wedge-shaped freeform optics fold the optical path to reduce volume, resolving the trade-off between high resolution and system weight.

A vehicle-mounted radiation inspection system uses a hydrocylinder-driven lifting device to adjust the vertical position of scanning components.

A control circuit switches photocathode voltage to a protective state during high-acceleration events.

An image intensifying device deposits a photocathode directly onto a microchannel plate substrate to enhance electron multiplication efficiency.

Segmented columns and dynamic arms resolve stability trade-offs during height adjustment.

Integrating electronics into a hollow C-arm reduces moving mass, enabling high dynamic robotic movement while maintaining structural rigidity.

Offset drive and mounting structure rotate radiographic assembly about virtual pivot axis to resolve patient access constraints.

Integrally forming electron emission and ion barrier films via atomic layer deposition creates continuous protective layers on micro-channel plates.

A hinge-based support mechanism positions an X-ray detector using a shaft and linear actuator.

Automated braking control replaces manual detents with sensor feedback to resolve positioning precision versus system complexity trade-offs.

A detector holder uses a mechanical plug interface to connect flat panel x-ray detectors without bolts.

Lateral casing lead-outs route wiring and cooling pipes to shrink the image receiving unit while maintaining maintenance access.