Optical Elements TRIZ Cases

A five-lens camera optical system with alternating refractive powers delivers large aperture and ultra-thinness.

Silane additives prevent oil mist formation in electrowetting lenses, maintaining optical clarity at elevated temperatures.

Segmented lens units with optimized focal length ratios resolve the trade-off between wide-angle imaging and chromatic aberration correction.

Segmenting the aperture diaphragm between the projection lens and prism mirror resolves arrangement freedom constraints in see-through displays.

A six-element camera lens assembly uses specific refractive powers to achieve ultra-wide-angle coverage.

Seven-element lens assembly expands field of view while correcting spherical and chromatic aberrations to maintain high resolution.

A projection lens uses segmented optical groups to achieve high magnification ratios while maintaining compact physical dimensions.

A hexahedral polarizing beamsplitter uses four triangular prisms to separate unpolarized light into orthogonal components.

A nine-element optical lens uses segmented refractive powers to achieve compact miniaturization.

An inverted first group with optimized refractive indices reduces total length while maintaining telephoto power variation capability.

A compact optical system moves a specific lens unit to increase image stabilization sensitivity while controlling eccentric aberrations.

Integrating curved wavefront compensators into the beamsplitter path resolves spherical and symmetrical aberrations from dispersive materials.

Dual mirrors deflect light in independent dimensions to expand the viewing zone while maintaining high image resolution across various angles.

Segmenting manufacturing processes across different substrate sizes resolves the contradiction between high yield and precision, reducing fabrication costs.

A display panel incorporates a double-line crack prevention region at corners to withstand sawing stresses.

A zoom lens uses specific Abbe number ranges in its first and rear lens units to correct chromatic aberration of magnification.

A zoom lens uses a cemented positive unit to correct chromatic and spherical aberrations.

A five-mirror afocal optical system balances positive and negative mirror powers to produce a collimated output beam.

Laser-formed multilayer pixels produce color through optical interference, replacing traditional paint to resist wear on exterior surfaces.

A five-group zoom lens system moves specific groups to achieve high resolution imaging.

A dynamically controllable reflector recycles backward light in exit pupil expanders to adjust color ratios.

A MEMS device integrates an etalon over support structures to absorb stray light, resolving non-uniform dark states and enhancing contrast ratio.

A compound zoom lens system segments optical units to form an intermediate real image for continuous magnification control.

A positive-lead zoom lens corrects aberrations using spherical and aspherical elements.

A six-piece camera optical lens uses mixed glass and plastic elements to achieve ultra-thin wide-angle imaging.

A head-up display device uses a concave imaging mirror to project magnified virtual images from standard displays.

Discrete coating layers with varying refractive indices optimize transverse image transmission and anti-reflective properties in augmented reality displays.

Segmenting the optical path enables detailed fault analysis without adding mass, resolving the trade-off between measurement precision and device weight.

A seven-lens optical imaging system uses aperture segmentation to arrange refractive powers and lens shapes for high resolution.

Coordinated second and fourth lens unit movement reduces aberration variations and angle of view changes during focusing.

Segmenting the rearmost lens group into three sub-groups reduces decentering coma while maintaining high image stabilization sensitivity.

A retrofocus optical system uses a negative lens made of anomalous dispersion glass to correct chromatic aberration.

A seven-piece optical lens design achieves ultra-thin form factors while maintaining wide-angle capabilities through specific refractive power conditions.

A zoom lens uses a negative refractive image stabilizing unit to suppress peripheral image blur during optical zooming.

An eight-element wide-angle lens design uses cemented assemblies to correct optical defects while maintaining a compact form factor.

A six-element optical camera lens uses aspheric surfaces and specific curvature radii to correct aberrations.

Seven-element camera lens uses alternating positive and negative refractive powers to correct chromatic aberration while maintaining ultra-thin profile.

Light-absorbing beads in opaque layers create interface roughness, reducing ghost images while simplifying manufacturing.

Segmenting the fifth lens group into fixed and movable parts suppresses aberration fluctuations during anti-shake operations at high magnification.

A five-piece optical lens system uses aspheric surfaces to achieve a wide field of view.