Closed Circuit Television Systems TRIZ Cases

Speed and pitch feedback automatically adjusts a vehicle camera view to keep terrain visibility aligned with changing driving conditions.

Adaptive transflective mirror optics and zoned LED backlighting improve rear video visibility while limiting glare, power use, and heat.

Local removal of reflector coating at mirror solder joints reduces glass cracking and spalling while preserving electrical connection reliability.

A transflective reflector and polarization-converting film let a full mirror display improve rearward visibility while preserving reflectivity and reducing power.

Synchronized image exposure and LiDAR pulse timing reduce smear during rotation and improve point-cloud image fusion for accurate 3D mapping.

A wide-angle rear camera digitally pans a reduced image area with steering input to cut processing load and keep the reversing path visible.

Auxiliary guide lines turn transparent over detected rear objects, preserving reverse guidance without hiding pedestrians or bicycles.

Load-based attachment detection starts recording as soon as a suction-mounted camera is fixed to a surface, avoiding shutter-trigger delay.

By moving image transmission off slip rings and onto a rotating wireless module, this push camera supports HD inspection and quick reel changes.

A holographic rear-view display forms a virtual image at a far focal point, reducing driver eye strain while removing direct line-of-sight limits.

A fixed imager outside the mirror rotation path preserves blind spot coverage while the exterior mirror rotates and reflection quality is maintained.

Tracks in overlapping sensor zones are associated and maintained as one target ID to avoid position and speed jumps in vehicle collision prevention.

A wall discontinuity creates a high-pressure zone that uses airflow to push debris away from a vehicle camera lens.

A tilted display and optical eye box create a natural-distance virtual image, cutting driver refocus time when checking vehicle surroundings.