Mountings TRIZ Cases

Segmenting a single lens into two specialized elements reduces positioning sensitivity, enabling stable light combining efficiency in projector assemblies.

Non-protruding vibration-resistant members reduce mirror plate shaking to prevent stray light generation and maintain reflecting surface flatness.

Predicts adhesive shrinkage to offset camera board position before thermal curing, resolving focusing accuracy loss during module assembly.

Segmented reflective plates secured by internal mounting elements minimize vertical height while maintaining stability against thermal effects and vibration.

A non-metallic lens installation system reduces lens stress by 61% during high-G launches, preserving Modulation Transfer Function.

A processor controls a heating element and bias signal to stabilize liquid lens temperature.

Curved structural members constrain inclined optical components in a multiplexer, preventing alignment errors from component tilt.

A plastic lens barrel integrates an optical aligning structure within its inner hole portion to position the imaging lens assembly.

A spherical press-fitted joint connects the mirror pivot plate to the case member for secure swingable mounting.

Offsetting the lens axis creates an asymmetric beam that expands the angle of view, resolving the trade-off between mechanical complexity and detection range.

Segmented rib surface patterns scatter refracted light to reduce flare and improve image quality in miniaturized camera modules.

Cords carry mechanical tension on flexible silicone lenses, preventing radiation embrittlement and extending array lifetime.

A driving method uses adaptive piezoelectric signals to move optical elements for precise image stabilization.

Cementing specific lenses in a nine-element wide-angle assembly resolves the trade-off between high resolution and temperature resistance.

A lens barrel uses monotonic and periodic sensors to detect absolute position, eliminating mechanical backlash errors without origin detection.

A modular laser processing system uses a sliding focus mechanism to adjust the optic height for thick workpieces.

Nested rotating members inside the cam cylinder reduce radial size without shortening the cam groove, preserving focal length and moving distance.

A six-element optical imaging lens uses controlled surface curvatures to expand the half field of view.

A camera module manufacturing apparatus aligns lens and sensor axes using an instantaneous curing adhesive for secure fixation.

A tunable acoustic gradient index lens modulates fluid refractive index via piezoelectric acoustic waves to shape light beams.

A lens position adjustment apparatus uses a drive control unit to move an optical lens along a transmission path.

A temperature compensation member expands along the optical axis to stabilize lens focal length across varying thermal conditions.

A beam expander uses pushrods to move guide cylinders within a tube for precise lens spacing.

Helical step and coplanar glue pocket maintain constant adhesive distance to prevent shrinkage-induced misalignment.

A lens barrel glue spreading surface with variable thickness supports sub-lenses to improve mechanical strength and assembly yield.

Extraction of focus adjustment mechanisms prevents thermal expansion misalignment in miniaturized lens units.

An ultra-telephoto optical system uses a negative lens with anomalous dispersion to correct chromatic aberration without increasing weight.

A vehicle mirror device uses a flexible engagement part on the mirror holder to secure a ring-shaped spring around a spherical joint.

Temperature sensor measures thermal changes around the parallax optical element, allowing processor to apply correction models and reduce crosstalk.

Mating peripheral portions on doublet lenses enable self-centering and radial stability, eliminating time-consuming mechanical alignment processes.

Segmented optical rail mounts with locking mechanisms allow quick-disconnect reconfiguration without disturbing adjacent component alignment.

A polarization combiner uses a base member with an arm and notch to position rotating and combining elements without direct contact.

Segmented magnets fixed to a base wall inside a recess prevent step formations that cause mirror inclination deviations in optical modules.

An integrated driving module moves a deformable liquid lens element to achieve miniaturization while maintaining autofocus and optical image stabilization.

An optical limiter device uses independently adjustable lenses to focus electromagnetic waves onto a nonlinear element for intensity reduction.

Differential thermal expansion in a compensation member moves the lens frame relative to the barrel, correcting focus deviation caused by temperature changes.

A cylindrical lens carrier contacts a yoke inner wall to absorb external impacts and prevent structural damage.

Necking parts on the spring component absorb assembly stress to prevent twisting, ensuring stable lens support movement and accurate optical axis alignment.

Positioning the driving coil at 50% to 90% of peak magnetic field strength maintains linearity and sensitivity despite reduced magnet size.

A lens unit uses non-overlapping magnetic driving assemblies to move an optical carrier along distinct axes.

Heated second lens barrels conduct thermal energy to front lenses, preventing frost accumulation that obscures optical clarity.

Segmented conductive pins and spring members within an insulating base simplify assembly processes while preventing damage to fragile components.

Segmented protrusions on the base and housing block foreign objects from reaching the IR filter, maintaining image quality stability.

Segmented through holes release thermal stress at heated edges, preventing warping and preserving display quality in large liquid crystal panels.

A plastic barrel integrates a mounting structure with gate traces to secure conductive elements within an autofocus module.

A 3D printing system captures images under varying focal lengths to calculate precise three-dimensional profile data without manual scanning.

A five-lens optical assembly achieves long focal length in a compact total length using alternating refractive powers and aspheric surfaces.

A camera module assembly method segments lens alignment into pre-adjustment and active alignment stages to improve production efficiency.

Segmented lens barrels with varying coefficients of thermal expansion compensate for temperature-induced defocus, maintaining focus stability during assembly.

A folded lens assembly uses a prism to redirect light, enabling a large front clear aperture within a compact mobile phone form factor.