Mountings TRIZ Cases

A lens mount uses a low-bending-stiffness spacer strip to deform the optical axis and linearize imaging.

A machine learning model detects subjects and focusing positions using phase difference signals from distinct pixel groups.

Dual prisms adjust laser divergence to modify line length without impairing optical homogeneity.

A dual-lens camera system directs light from two lenses to one image sensor via a movable reflecting module.

Axial spring force compensates for plastic creep and thermal clearance changes to maintain uniform friction moment in adjustable automotive mirror drives.

A deformable lens assembly uses flexible materials and electromagnetic actuators to adjust optical parameters dynamically.

A four-element imaging lens design reduces system length below 3.0 mm through optimized refractive powers and surface geometries.

Asymmetric coil lengths counterbalance focusing forces to suppress yawing resonance, ensuring accurate displacement sensing via a Hall element.

Spectral filter converts green screen illumination to brown tones, minimizing adversary visibility while maintaining touch functionality.

A miniature lens assembly uses a movable optical element to achieve precise active alignment within the barrel structure.

Concave convex wafer engagement fixes optical centers to resolve de-centering defects in high resolution lenses.

Segmented cementing glue coatings in a plastic lens assembly adjust refractive indices to reduce flare while maintaining central field light gathering quality.

Protrusion and groove coupling secures segmented lens barrels against external impacts, preventing separation and maintaining optical integrity.

Cam-driven tilting of a linear filter array resolves the trade-off between compact volume and rapid wavelength switching in microscopy systems.

Gate opening positioning on light incidence side reduces scattering and maintains uniform beam diameter across the scanning region.

Aligned wafer apertures create a structural ledge that resolves bonding reliability issues while reducing manufacturing costs.

A thermal spreader connects two integrated sensor-lens assemblies to transfer heat between them.

An annular retaining element positions optical elements while a nano-microstructure eliminates flare and improves relative illuminance.

A composite structure with a low thermal expansion holder suppresses resin deformation during interference exposure, maintaining diffraction angle stability.

A liquid lens with a conical bore and top-mounted electrodes shapes the fluid interface through electrowetting, overcoming electrode placement complexity.

Air gaps between holding and exterior members reduce heat conduction, minimizing spherical aberration from temperature changes.

An attachment frame inner wall partitions the lens barrel to house a switch assembly.

A micromechanical optical element uses multiple independent spring elements to hold the reflective surface for precise deflection.

Regularly disposed protrusions guide reflected light away from the optical effective region, suppressing unexpected reflections and improving image quality.

Dynamic lenses track pupil movement to expand the viewing angle without manual adjustment.

A motor-driven lens holder aligns interchangeable optical elements within a scanner housing to switch between focal configurations.

Merges light shielding components with the housing to eliminate stray light and reduce assembly complexity in image reading devices.

Integrated base part fixing structure prevents unwanted displacement during hand-shake correction while minimizing overall camera module size.

Concave strip structures on a plastic lens element minimize uneven shrinkage and warpage during injection molding while maintaining high optical quality.

Dual substrates and a filling member reduce volume in vehicle-mounted cameras without compromising optical path length.

A lens barrel applies variable damping force via a cam groove angle to resolve operating torque variation during zooming.

Three asymmetric tabs on a camera accessory mount prevent cross-threading by blocking engagement at incorrect phases.

Segmented cover plates slide along guide rails to expose the lens without increasing device size or adding moving parts.

Five-group orthoscopic lens corrects distortion below 0.2% and stabilizes focal length against thermal fluctuations.

Voltage-driven electrowetting removes raindrops from vehicle windshields and LiDAR sensors, maintaining clear optical paths for autonomous driving navigation.

Kinematic mount alignment structures integrate debris mitigation features to ensure accurate lens positioning in head-mounted displays.

A lens device integrates aperture stop and variable light transmission filter adjustments via synchronized dual operation rings.

Bridge portion supporting means adjusts leaf spring load characteristics to stabilize holder position despite uneven metal plate thickness.

Flanking shutter and filter motors along the optical axis reduces volume while maintaining zoom capability.

A planar mirror with a crown-like adjusting element applies localized forces to correct wavefront aberrations.

An adjustable polarizing neutral-density filter assembly uses an elastic engaging member to secure axial ring rotation.

Intermediary guide parts align the optical axis with the center axial line, reducing lens stress and improving manufacturing precision.

A barrel driving system uses photo-interrupter feedback to replace count values and correct positioning errors.

An axial locking mechanism replaces radial clamps, reducing lens diameter while maintaining optical alignment.

A cylindrical holding frame supports stacked lenses while a light shielding film on its protruding part functions as an aperture stop.

A projection lens unit uses a bimetal member to move the lens barrel along the optical axis, correcting focal shifts caused by temperature increases.

Notches in a lens fixing member hold glue to bond components, preventing vibration damage and assembly precision loss.

A conductive spring jack contacts gear rods to detect cover plate position via varying resistance values.