Mountings TRIZ Cases

Adjustable alignment fixtures maintain mirror orientation during adhesive curing to prevent volume change from distorting angular relationships.

A removable auxiliary lens system attaches to mobile devices via a universal retainer to provide optical enhancements like magnification and wide-angle viewing.

Separating the supporting wall from the base plate allows non-zero parting angles, reducing fabrication costs and environmental impact.

Non-adhesive relief structures segment the interface to reduce thermal stress and maintain optical integrity during assembly.

A camera module uses a ranging radar to measure reference distance for focus adjustment.

Inclined plane and protruding portion convert rotation to linear displacement, resolving complex adjustment mechanism requirements.

A tiltable mirror with a rigid substrate and frame enables precise image stabilization through electromagnetic actuation.

Separate guide axes position the spring offset from the optical axis, reducing compression load while maintaining guiding precision in thin camera designs.

An electromagnetic lens drive stabilizes Z-axis movement using a magnetic member and coil system.

Varying spacer protrusion lengths disrupt light paths to cancel diffraction interference, preventing flare in camera modules.

A single-piece mirror bracket integrates a tunnel to house sensors near the windscreen.

Segmented lens subgroups with specific dispersion properties resolve the trade-off between aperture brightness and chromatic correction in industrial cameras.

Independent diaphragm ring rotation decouples click engagement from aperture adjustment, eliminating audible clicks during video recording.

Specific angular relationships between bayonet claws and lock pin grooves prevent tilting under external forces.

Pre-formed grooves contain adhesive during assembly, maintaining axis accuracy and bonding strength without removing upper lens members.

A magnetic-permeable shielding member reduces cross-talk between adjacent lens driving modules, restoring focus speed and accuracy.

A defocus amount calculation unit selects signals from light shielding or photodiode division pixels to determine focus.

Friction engagement between retaining and engaging units mounts the focus member, eliminating screw-driven assembly complexity.

Elastic members apply axial force to optical components, suppressing cam backlash and maintaining alignment without added complexity.

A segmented imaging lens design uses two optical systems to form and re-form an intermediate image, enabling precise focus control via a moving lens group.

Etched Barker code fiducials create sharp diffraction peaks that localize blurred objects despite background noise interference.

Conical protrusions on lens barrel inner surfaces scatter incident light to reduce optical interference.

A variable-focus lens incorporates a gas volume to absorb liquid thermal expansion, preventing internal pressure from distorting the refractive interface.

A three-group imaging lens system balances refractive index temperature coefficients to stabilize optical focus.

Varying rib cross-sections compensate for lens thickness changes, reducing flowability differences and minimizing defects in long lenses.

A multi-array lens assembly uses protrusions and recesses to self-align stacked optical elements along the imaging axis.

A rotating reflector array with adjustable elevation angles directs light toward moving vehicle sensors.

A clamp uses a moveable clamping member to secure a vehicle wing mirror and mounting arm simultaneously.

Spacing elements between lenses block oblique rays while nested barrels reduce assembly volume, maintaining high imaging quality.

A spherical mount assembly positions a spherical element to coincide with an optical surface center of rotation.

A zoom lens configuration uses a dedicated negative second lens unit for focusing to optimize sensitivity and reduce aberration fluctuations.

Single objective lens merges multiple fiber paths to reduce system size while maintaining multi-directional wind measurement capability.

Dynamic exposure adjustment compensates for effective aperture changes during focus stacking, eliminating uneven luminance defects in composite images.

Elongated receiving holes guide positioning protrusions to resolve radial play and manufacturing cost trade-offs in lens barrel assemblies.

A negatively-refractive focusing structure concentrates electromagnetic energy within an interior region using a transformation medium.

A stereoscopic optical system uses reflective surfaces to bend the light path and reduce the distance between optical axes on the image side.

Multi-wavelength magnetic scales and speed-dependent correction tables enable high-accuracy lens position detection despite measurement complexity.

Segmented optical modules maintain stable humidity and temperature to protect high-energy light pathways from contamination and thermal stress.

Pivotable wedge lenses rotate between open and closed positions to switch between infrared and visible light modes without manual filter changes.

A unibody dual-lens mount secures antiparallel lenses with lateral offsets to maintain tight alignment tolerances.

Optimizing Abbe numbers across lens groups resolves the contradiction between miniaturization and aberration compensation in zoom lenses.

An optical imaging lens assembly with alternating positive and negative refractive powers achieves an ultra-large aperture while maintaining compact size.

A lens prism module uses a nested connecting shaft within an accommodating groove to reduce overall volume.

An optical module rotates a mirror unit using electromagnets and permanent magnets to generate sufficient driving force for stable beam vibration.

Segmenting the diopter range into smaller intervals allows electric drive modules to achieve high precision adjustments despite broad adaptability requirements.

Segmented lens arrays with distinct pitches suppress moiré patterns and inversion while maintaining image luminance.

Elastic holding mechanism corrects scanning line bending and color misalignment caused by thermal warping in tandem image forming systems.

Rolling balls on a curved protrusion eliminate force deviation during rotation, ensuring smooth optical image stabilization.