Mountings TRIZ Cases

An inclined reflective filter directs infrared light toward a dedicated heat absorbing portion within the illumination path.

Segmenting the pillow layer allows continuous adjustment of spacer compression, preventing gravity Mura in large display panels.

An interchangeable lens transmits image plane movement coefficients to a camera body for precise focusing control.

A lens barrel design uses specific plano-convex and biconcave lenses to manage light refraction.

Radial spacers contact the cam barrel to suppress looseness without increasing rotational torque.

A lens barrel integrates guide members with cam and straight portions to constrain movable barrel movement along the optical axis.

A spring anchors a head-up display mirror mount through a housing hole using a stopper, enabling maintenance access while maintaining vibration resistance.

A five-element optical lens system corrects aberrations through specific focal power distribution and surface curvatures.

A joined optical member uses a bonding member with an exposed portion to adhere an easily adhesive lens, eliminating the need for a bulky lens barrel.

Segmented housing with snap-fit strips mounts front and back add-on lenses, avoiding bulky designs that obstruct cameras or hinder portability.

Disposable plastic mirror with handle and suction cup attachment provides familiar reflection for infant swim instruction.

A liquid lens design uses electrodes to control curvature and maintain optical stability.

Electrostatic fluid accelerators move ions to cool printed circuit boards in vehicle display mirrors without mechanical fans.

A grooved protruding member mount absorbs external stresses to maintain secure attachment of optical structures.

Adjustment member slides along helical groove for precise working distance setting without separate fixing members or adhesives.

A Fresnel lens projects a high contrast image to provide visual cues for precise position adjustment.

An insulated contact sleeve with embedded conductors supplies power to camera objective components while accommodating alignment variations.

A ten-element wide-angle lens assembly uses specific meniscus and biconvex lens arrangements to expand the field of view.

Displacement portions flex out of the lens holder plane to compensate for thermal expansion forces, maintaining precise optical alignment.

Fitting and guide protrusions on the inner barrel surface position lenses precisely, resolving positional accuracy issues in image pickup apparatuses.

Integrated stoppers on the cover member limit upward and downward bobbin movement, preventing component collision during autofocus operations.

Dual independent wedge motors drive a stacked mirror assembly to achieve high correction bandwidth and wide pointing agility.

Segmented driven members engage a lead screw via biasing springs to prevent tooth skipping and thread damage under external forces.

Polyhedral segmentation and datum contact minimize seam widths and processing time while maintaining complete 360-degree coverage.

An arrayed rotating mirror system reduces volume and power consumption while achieving large scanning angles for lidar applications.

A lens restrictor mechanism prevents physical interference between the movable lens unit and intermediate adapters during attachment.

Nested sealing members prevent moisture penetration into the lens barrel, stopping image-side lens clouding during long-term usage.

A mirror lens carrier uses a hemispherical cup to secure the optical element for manual adjustment.

Real-time position feedback eliminates step loss and mechanical wear, enabling high-speed lens adjustment without accuracy degradation.

Segmenting the first lens group corrects spherical aberration while reducing the weight of the moving focusing assembly.

A rotatable reflector directs light from different scene portions to a single image sensor, overcoming mobile device housing size constraints.

A lens barrel uses correcting tubes with different linear expansion coefficients to adjust lens positions along the optical axis.

A lens with a radiation exit face featuring central minima and connecting embankments directs light for uniform illumination.

Perimeter sheet springs suspend the lens group laterally, reducing system height and stress distribution to improve modal performance.

An elastic spacer spring distributes thermal compression stresses within a camera lens barrel, preventing lens loosening during temperature fluctuations.

A setting tool system integrates a prism for location identification and a weighted shaft for anchoring installation.

A mount uses a flanged protruding member and cavity to secure optical structures without adding mechanical stress.

A single eccentric actuator moves an optical component along two perpendicular axes via a flat sliding interface.

Segmented barrel design with compressed O-rings prevents water vapor intrusion and fogging in lens units.

Segmented wafer lenses employ specific non-lens sections as positioning references to resolve manufacturing precision issues caused by low surface accuracy.

Cylindrical elastic supporting portions replace flat plate springs in a lens driving device, resolving planeness and anti-torsion strength issues.

A camera lens assembly uses a pin and spiral cam groove to drive linear movement along the optical axis.

Segmented modules and universal interfaces resolve complexity trade-offs while enabling real-time imagery sharing across varied environments.

Silicon carbide and iron oxide additives in a silicon nitride lens holder minimize dimensional changes during sintering, eliminating secondary processing costs.

Viscous fluid resistance between rotating and stationary tubes adjusts lens torque without increasing barrel size by changing contact area.

Precomputed lookup tables configure dual variable focus lenses to maintain image quality during rapid scanning, avoiding computational bottlenecks.

Segmented cooling channels force liquid jets against a thermal pad, raising heat transfer rates to prevent overheating in laser imaging modules.

An adjustable calibration unit switches between reflective and display targets to resolve the contradiction between alignment precision and device complexity.

Color-coded mount peripheries identify compatible lenses, preventing back focal length errors without increasing component complexity.

Thinning the joining part reduces gap space to lower laser output and suppress spatter during spherical-to-plate welding.