Mountings TRIZ Cases

Multi-gate injection molding distributes stress uniformly in plastic lens barrels, eliminating local concentration and improving structural strength.

A lens module uses a serrated sliding groove to guide precise lens gap adjustments between barrel components.

Parallel optical systems with driven aperture stops capture simultaneous exposure levels for high dynamic range video.

Preloaded spring arms activate to contact heating devices, preserving adhesive bonds and boosting joining speed.

A LiDAR driving assembly uses a stator and rotor arrangement to balance mechanical loads across bearing components.

A mixing optical element combines a glass effective portion with a plastic outer peripheral structure to fix the central axis position.

Downstream mirrors sit closer to the optical axis than upstream mirrors, balancing the optical path and preventing vignetting in compact image readers.

Automated image analysis detects eye misalignment and drives gantry adjustments, resolving manual alignment precision issues in ophthalmic systems.

Relocating AF terminal pads to the moving member major planar surface eliminates gooseneck structural weaknesses and expands auto focus stroke.

Laminate film with Bragg-reflector stacks and high-index layer blocks hazardous laser light across wide incidence angles.

A segmented base structure allows suspension wires to extend through multiple openings, increasing effective length for optical movement.

Offset abutting portion absorbs axial impact forces, preventing plastic deformation of guide shaft bearings and maintaining optical alignment.

A nested barrel lens structure extends the optical zooming path through interlocking grooves and pins.

Recessed extending surfaces on a glass lens absorb stray light from bearing interfaces, preventing interference with the optical portion.

Flexible thin film interfaces replace rigid connections to convey drive signals without disruption, reducing hysteresis in fast-steering mirror systems.

A self-temperature focus compensation device uses cemented Fresnel lens groups to stabilize optical power against thermal variations.

Dual movable lens and sensor assemblies compensate for vibration in compact devices, reducing stabilization time and distance.

A seven-lens optical imaging system uses nested infrared and visible light lenses to correct aberrations within a compact form factor.

Terminal recesses guide connecting terminals to join conductive spring members, resolving assembly complexity and ensuring reliable electrical conductivity.

Differing adhesive elastic moduli cancel refractive index shifts and thermal deformation, maintaining focal length stability without extra components.

Segmenting diopter and focus controls resolves the trade-off between device complexity and ease of operation while automating dual-lens alignment.

A lens barrel module integrates a flow path unit to distribute adhesive across multiple accommodation sections simultaneously.

Ball arrays mediate cam ring contact to reduce operation torque while elastic biasing prevents backlash in the lens apparatus.

A voice coil motor carrier uses radial enlarged portions to maintain spring plate flatness during assembly.

A lens mount features a segmented outer diameter portion with cutout portions to reduce fitting circumferential length and improve attachment workability.

A three-lens single focus optical system corrects aberrations using specific refractive index and Abbe number constraints.

A camera module lens holder uses a partial circumferential rip thread to guide axial movement and maintain optical alignment.

An optical adaptor connects to smartphones to capture wide field retinal images, reducing device complexity and improving mobility for remote patient care.

A lens holder driving apparatus uses electromagnetic forces to move an octagonal lens holder along the optical axis.

Separate diopter adjustment and correction circuits resolve left-right image size differences in non-telecentric head-mounted displays.

A camera accessory body-side communication unit issues a discriminating signal to identify mounted devices.

A lens array unit mounting structure uses projections and grooves to secure the optical component within a housing recess.

A control unit detects a collapsible lens barrel stored state to display device information for user preparation.

Three-axis adjusting device positions optical device centers using independent movable elements to resolve coaxial alignment precision challenges.

Segmenting the actuator from the sensor reduces module complexity and power consumption while maintaining anti-shake reliability.

A head-mounted display uses a focal length adjusting lens and compensation lens to reduce volume while maintaining image clarity.

A composite imaging lens combines curable resin and high softening temperature glass to maintain optical performance.

Adapting z-scan parameters based on optical zoom and working distance to locate the best focal plane in an imaging system.

A vehicle mirror seal extends toward the cover to maintain contact with the base periphery.

A double ball slide mount bracket encloses a sensor within a recessed aperture and protective cover.

Optical imaging lens design uses specialized glass selection near the aperture stop to reduce thermally induced stress birefringence and ghost images.

Curved electrodes align liquid crystal molecules to create varying refractive indices, resolving manufacturing precision limits in variable focus systems.

Six-lens optical imaging assembly uses dedicated spacing elements to block internal reflection paths.

A frame member with a recess engages a cam barrel protrusion to redirect impact forces away from internal optical components.

A three-tier cam barrel system converts rotation angles to drive multiple lens holders along an optical axis.

An optical axis alignment apparatus calculates a principal point from multiple images to coaxially align the image sensor center with the lens assembly.

Emboss processing creates adhesive reservoirs to increase fixing force, preventing detachment of the reflective portion from the movable body.

An integrated substrate design merges ToF and RGB sensors to reduce manufacturing complexity while improving depth image accuracy.

A six-lens optical module design featuring specific surface curvatures and refractive power distribution to achieve a compact form factor.

Segmenting bayonet and linear couplings resolves conflicts between secure connection and axial travel, reducing bulk.