Optical Elements TRIZ Cases

Imaging lens combines low refractive index LA lenses with high refractive index LB lenses to correct chromatic aberration in the medium infrared range.

Separation wall spaces store non-polar fluid to prevent corner accumulation that reduces contrast and transmittance in electrowetting displays.

An adaptive optical element varies light beam divergence based on incidence angles to maintain focus across the optical path.

A six-lens optical system with negative refractive power lenses corrects aberrations to improve image quality.

A polarizer and partial reflector manage light polarization within a light guide to direct image light toward the viewer.

A four-lens subminiature optical system uses aspherical surfaces to minimize chromatic and spherical aberrations.

Illumination separation prism elements spatially separate pumping illumination from emitted broadband radiation in laser-pumped plasma sources.

Segmenting the bumper into rigid and compliant portions distributes applied forces to protect sensitive components while maintaining user comfort.

An eight-lens imaging configuration corrects longitudinal chromatic and spherical aberrations through specific refractive power arrangements.

Segmenting lens groups and moving a negative refractive power element orthogonally maintains telephoto brightness despite compact back focus constraints.

Segmented lens groups with cemented elements correct chromatic aberration and astigmatism for high-resolution imaging.

A multilayer fluorinated membrane structure enhances water repellency in electrowetting devices through specialized polymer layering.

Two polarization-selective diffractive elements separate and focus polarized light onto a single imaging sensor.

A seven-lens optical system uses aspheric surfaces to increase light entry and improve imaging quality.

A rigid central support raises the resonance frequency of parasitic piston modes above operational frequencies to reduce vibration amplitude.

A six-lens optical assembly with specific refractive powers and aspheric surfaces enables compact camera designs.

A moving first lens group with a positive refractive power adjusts focus while a stationary second group maintains optical alignment.

A crosslinked polymeric insert material combines polysiloxane and aryl acrylic components to achieve high oxygen permeability and refractive index.

A refractive window in the optical path corrects pixel misalignment between left and right eyes, resolving depth perception issues in XR headsets.

Segmented lens elements with optimized curvature ratios correct diffraction limits, enabling bright F-numbers and wide angles without sacrificing resolution.

Segmenting holographic optical elements by Bragg condition expands the field of view while preserving energy loss in head-mounted displays.

A six-piece camera optical lens corrects aberrations through optimized refractive power distribution and aspherical surface shapes.

A curable composition using oxyfluoroalkylene groups forms cured films with low viscosity and dielectric constant.

Optimized six-lens arrangement balances focal lengths to resolve the trade-off between large field angle and compact lens weight.

Optimized six-element imaging lens design resolves the contradiction between high imaging performance and compact overall length.

A five-element imaging lens uses specific diameter ratios to maintain optical performance in near-infrared applications.

A five-piece optical lens uses aspheric surfaces to increase light intake and improve imaging quality.

A head-mounted display adjusts its position using gravity and eye-tracking sensors to align the screen with user eyes.

Segmenting the optical path into six lenses with specific refractive powers resolves the contradiction between compact module thickness and high image quality.

A seven-element camera optical lens structure uses specific refractive indices and composite materials to focus light with high precision.

Segmented lenses with specific refractive powers balance focal length and field of view to maintain image quality in space-constrained devices.

A support member fixes the lens array unit outside the display area to prevent warping, ensuring uniform lens-pixel gaps across varying screen sizes.

A seven-element camera optical lens uses mixed plastic and glass materials to achieve ultrathin form factors.

Controlled 6-membered cyclic acid anhydride units and alkali metals suppress yellowness while maintaining wet heat whitening resistance in optical lenses.

A seven-lens optical imaging system uses aspheric surfaces to distribute refractive power and reduce aberrations.

A spectrally-selective optical element uses a diffractive interface to manipulate optical beams within a specific frequency spectrum.

A segmented collimation display uses parallel relay lens arrays to project virtual images at infinity.

Segmenting the matching composite layer into first, second, and third refraction layers expands the spectrum range while reducing average reflectance.

A polymerizable composition balances reactivity to produce polythiourethane-based compounds with excellent appearance.

Alternating negative and positive lens powers correct aberrations while reducing total track length below 5.5 mm for a 119-degree view angle.

Conductive polymer coating on transparent support reduces static charge buildup while maintaining optical clarity in ophthalmic laminates.

Internal focus telephoto lens uses double lens movement to improve focusing speed while managing structural complexity.

A reduction optical system with positive refractive power uses specific lens parameter inequalities to optimize optical performance.

Composite lens system with glass and plastic elements maintains optical performance across wide temperature ranges.

A five-element optical imaging lens assembly with aspheric surfaces and specific refractive powers to achieve wide angle coverage.

A face fitting spring plate deforms elastically to match user contours without thick foam layers.

A zoom lens integrates focusing and vibration reduction mechanisms within unified segment groups.