Mirrors TRIZ Cases

An off-axis parabolic combiner focuses collimated infrared light to a camera while transmitting visible scene light.

A hinge-like articulated connection secures a mirror seal to the base cover, allowing it to fold onto the bodywork surface.

Thin-film interference generates distinct color shifts to prevent forgery without complex verification equipment.

Interconnected curved net bodies tension a reflective mesh to maintain surface accuracy while minimizing assembly weight.

Fused silica particle adhesives enable low-temperature bonding of Zerodur and cordierite mirrors, resolving high viscosity and thermal mismatch issues.

A vehicle mirror drain wall guides ingressed liquid downward along an inclined surface to a discharge hole.

Aperiodic dielectric layers reduce total thickness and manufacturing complexity while maintaining over 90% reflectance.

Integrally molded imaging element array suppresses lens deviations and minimizes stray light to enhance optical efficiency.

A cold mirror maintains reflection phase difference within 180±60 degrees across the visible spectrum to ensure consistent image color tone.

An optical structure aligns local mirror and diffractive structures to mix reflected and diffracted light for stable color representation.

Stacking alternating glass and transparent resin plates eliminates adhesive thickness variations that cause parallelism errors and image distortion.

A silver reflective film containing oxide particles topped by a dielectric multilayered film enhances light emission efficiency.

A light emitting device uses transmission portions and substrate orientation to direct photons through a second surface.

Segmented concave mirror measurement identifies specific optical element distortions, enabling precise spatial light modulator compensation.

Segmented semi-cylindrical lenses diffuse light without randomizing phase, resolving the trade-off between wide field of view and image resolution.

Segmented formed layers with concave curvature distribute stress and prevent separation during thermal cycling.

A compliant electromagnetic shield uses spring tabs to contact a grounded heat sink and circuit board, establishing direct thermal conduction paths.

A reflection member using cholesteric liquid crystal layers and quarter-wave plates to selectively reflect visible light while extracting projected beams.

Barrel distortion from scan optics compensates for pin-cushion curvature in raster polygon mirrors, delivering straight parallel scan lines.

Relocating the optical assembly above the eyes reduces field of view obstruction while maintaining transverse balance through strategic battery placement.

Ion beam sputtering controls surface roughness to reduce pseudo defects in EUV lithography.

Integrating a curved synchronization mirror between the scan lens and scanner reduces unit size and cost by eliminating separate focusing lenses.

Multi-Z confocal microscope uses Z-extending illumination line and reflecting pinhole array to split detection signals for simultaneous volumetric imaging.

A curved reflection cover collects divergent LED beams into an optical assembly, reducing light loss and device volume compared to complex aspherical lenses.

A clip connection secures a fixed plug part within the exterior mirror housing, reducing assembly time while maintaining electrical reliability.

Segmented reflective elements with parallel bisectors converge light to eliminate mirror artifacts while simplifying manufacturing costs.

Asymmetric gate mark positioning prevents weld lines on reflecting surfaces, resolving manufacturing precision trade-offs in optical scanning apparatuses.

An optical disc unit expands ultraviolet beam angles using reflective surfaces to ensure uniform sterilization coverage.

A liquid cooled EUV reflector uses segmented cooling circuits to manage thermal loads on the optical surface.

Merged dihedral reflectors simplify manufacturing while maintaining high image clarity and reducing production costs.

A light blocking gasket absorbs stray illumination between the lens and sensor.

A single layer image projection film uses periodic microstructures to produce magnified moiré images through light interaction.

Rib structures in connecting parts reduce stress concentration, allowing higher amplitude operation without damage to the mirror unit.

A light-emitting element uses a metal joining part between the phosphor layer and substrate to improve heat dissipation.

Separate resin and metal clutch components eliminate surface roughness treatments, reducing torque dispersion and manufacturing costs.

Reflecting layer pair with retardation layer converts incident polarized light to enhance optical element reflectivity.

Segmented micromirror relief areas ensure complete wash ink wetting, preventing metallization defects and gray haze in demetallized security elements.

A rearview mirror uses a light conductor with deflection optics to direct display illumination toward the driver.

Ultrathin graphene membranes block contamination particles to maintain imaging performance and extend patterning device lifespan in lithographic apparatuses.

Hollow chamber walls in facet assemblies reduce stiffness for precise reflection surface deformation.

A tilted cholesteric liquid crystal optical film reduces oblique retardation through a specific molecular helical structure.

Parabolic mirrors redirect light rays to create a floating 3D image, enabling safe user engagement without physical contact with rotating diffusers.

A reflecting filter cover manages encoded electromagnetic radiation from ultra-small resonant structures.

A foldable mirror accessory clips onto a laptop to reflect documents into the built-in camera view.

Replacing lens modules with a curved reflector eliminates ghost images caused by reflections while enabling 100 to 180 degree fundus perspective imaging.

Textured surfaces on windows and reflectors scatter UV light to eliminate non-uniform curing and shrinkage on large wafers.

A counterfeit prevention structure uses a fine-relief layer with varying depth-to-width ratios to position a reflective coating.

Patsnap Eureka TRIZ case: sub-micron pseudo-random scattering structures reduce iridescence and prevent diffraction in optical coatings.