Optical Elements TRIZ Cases

A six-piece camera optical lens uses alternating positive and negative refractive powers to correct aberrations.

Segmented focusing lens group reduces weight to enable high-speed autofocus while suppressing aberrations during zooming.

Spatial light modulator adjusts imaging distances via electronic signals, resolving uniform visual experience limits.

A post-deflection optical system uses two flat plates to transmit and correct the luminous flux scanned by a polygon mirror.

A five-lens imaging unit uses specific refractive powers and high dispersion materials to correct optical aberrations.

A six-element photographic lens uses specific refractive powers and aspherical surfaces to correct optical aberrations.

A six-element optical imaging lens assembly uses specific refractive power distribution and aspheric surfaces to correct aberrations.

A zoom lens uses a high Abbe number meniscus lens to eliminate aberration without aspherical elements.

A microprocessor controller deflects a laser beam onto a reflective target to verify signal presence before enabling display operation.

A dual focusing lens group optical system moves elements along different loci to correct spherical aberrations during autofocus operations.

A photo-alignment copolymer merges alignment and liquid crystal functions into a single integrated layer.

Magnetic frames attach to head-worn displays, aligning optics and enabling eye-tracking while resolving prescription glasses compatibility issues.

Segmenting optical power across three aspheric elements resolves the trade-off between wide viewing angles and compact device integration.

An optical scanning unit uses an f-θ lens to correct beam magnification for main and subscanning directions.

A five-piece optical lens system uses aspheric surfaces to increase aperture value and improve imaging quality.

A head-mounted display pivots its head abutting portion against user heads, resolving structural stability versus wearing comfort trade-offs.

High-reflection coatings on see-through elements block external viewing of displayed information, resolving confidentiality and aesthetic contradictions.

Segmenting the rear group into independent lens elements reduces focusing mass, resolving the trade-off between speed and aberration correction.

A four-lens imaging system nests the aperture diaphragm and shutter mechanism between the first and second lenses to reduce overall length.

Replacing glass with flexible polymer substrates eliminates heat degradation in absorption filters while maintaining spectral control.

A metamaterial absorber integrated focal plane array uses sub-wavelength resonators to generate surface plasmon resonance for broadband infrared absorption.

Optimized polythiol compositions resolve the trade-off between heat resistance and dyeability in plastic lens manufacturing.

A macro lens system uses segmented lens groups to correct chromatic aberrations during close-distance imaging.

A volume phase holographic element replicates images across multiple positions to expand the eyebox in wearable heads-up displays.

Segmented moving lens groups correct aberrations while maintaining compact size.

A beam scanning device uses tilted light-intensity-distribution converting units to steer a variable-wavelength laser beam without mechanical components.

Curved organic EL display corrects field curvature to maintain a wide angle of view while reducing device weight.

A combiner positioning unit uses a spring element to push the support against housing stops for stable storage and operating positions.

A combining prism receives red, green, and blue image light through defined gaps of varying sizes to adjust optical path lengths.

A six-lens optical assembly with specific refractive powers and curvatures reduces module height while maintaining image quality.

An eight-lens camera optical lens design corrects aberrations through specific refractive power distribution and curvature radii.

A five-element imaging lens balances refractive power across positive and negative elements to correct optical aberrations.

Hydrophilic silicone macromers create hydrogel films that improve corneal oxygen transport while eliminating lipid deposition issues.

Link mechanisms adjust contact section positions to resolve the contradiction between adaptability and fitting stability for small heads.

A zoom lens uses negative-positive floating sub-units to correct optical aberrations.

A five-lens thin imaging assembly uses aspheric surfaces to correct optical aberrations and reduce height.

Optimized refractive power distribution in a five-lens camera module corrects aberrations while achieving a narrow 47.8-degree view angle.

Alternating positive and negative lens elements correct chromatic aberration to maintain optical performance while reducing total lens length.

Segmenting the optical path into six distinct lens groups resolves the trade-off between wide angle of view and high resolution.

Merged knob and button into one element, reducing complexity while enabling both step and non-step strap tightness adjustments.

Mirrors fold the optical axis to resolve volume constraints while maintaining high resolution in thin devices.

Single spherical glass lenses replace cemented plastic elements to prevent thermal deformation and maintain optical stability in harsh environments.

Segmented lens units with variable spacing resolve the trade-off between compact volume and aberration stability during focusing.

Segmenting windshield regions with distinct optical properties preserves transparency while directing higher light energy to specific display zones.

An optically absorptive grating with protrusions absorbs incident light within camera modules.

Anti-glare shutter suppresses stray light reflections in head-up displays, maintaining image clarity and reducing thermal load within the eyebox.

A six-lens optical system achieves near-confocal imaging across visible and infrared wavelengths through optimized refractive power distribution.

Intersecting optical axes in a virtual image display device reduce thickness by eliminating parallel prism members while compensating for image inclination.