Optical Parts TRIZ Cases

A method selects lens design standards by balancing distance and near vision areas through parameter changes.

A curved eyewear lens uses electrically switchable spectral transmittance zones to modulate light transmission.

Optimizing ophthalmic lens optical surfaces using frame morpho-geometrical parameters to integrate light-guide elements.

Decentered optical zones and modified peripheral curvatures stabilize toric lenses while enhancing tear exchange and oxygen transmission.

A curable composition blends zirconium oxide nanoparticles with a bicarbazole compound to form a plastic lens resin.

Deformable conductive nanostructures enable curved electrochromic lenses that avoid cracking and power errors.

A presbyopic lens uses a gradient power distribution from 0 D to +2.00 D across its surface.

A progressive addition lens design method adds transmission astigmatism to expand the clear visual field range.

Replacing allyl methacrylate with carbamate and methacrylate agents improves dimensional stability and tear resistance in high water contact lenses.

Silicon nitride films stabilize adaptive lens power via magnetic feedback, preventing drift over the three-year lifespan.

Matching the antireflection film chromaticity to the tinted lens base eliminates reflected light color mismatch and flicker.

Benzyl halide suppresses white turbidity and striae during curing, ensuring high transparency.

A portable meditation apparatus uses a translucent lens to create a focal zone while preserving peripheral vision.

Segmented layers resolve oxygen transmission loss from impermeable optical filters by routing gas through dedicated air paths.

An activable optical filter switches between clear, intermediate, and dark states using an electrochromic device.

A tunable lens uses a deformable polymer membrane and actuator to adjust optical power without liquid.

A plastic spectacle lens uses a hard coating layer containing metal oxide particles to achieve high visible light transmittance.

A Fresnel zone patterned electrode modulates light phase to adjust focal length, resolving bulkiness and low diffraction efficiency in ophthalmic devices.

An amphiphilic copolymer bonds polydimethylsiloxane to chitosan via EDC coupling agents.

Vinyl ether monomers in the polymerizable composition eliminate volatile organic solvents, maintaining surface wettability and dimensional stability.

Aligning astigmatism axes vertically within specific control zones improves visual comfort for presbyopic wearers by minimizing intermediate vision defects.

Identical rear lens surfaces standardize positioning in AR eyewear, preventing eyelash interference and expanding the field of view.

Asymmetric lens design resolves peripheral vision discomfort by coordinating far and proximate zones through controlled refractive power gradients.

A method calculates axial length from prescription data to optimize progressive lens power and astigmatism fields.

A method assesses wearer visual exploration efficiency to determine an optimized optical design for ophthalmic devices.

Segmented thickness profiles in the peripheral positioning zone prevent decentration during blinking and eye rotation.

A prismatic lens applies distinct prism diopter powers to distance and reading portions.

Antireflection coatings on ophthalmic lens pairs use controlled mean reflection and chroma values to distinguish residual reflection intensities.

A lens uses segmented transmission to block harmful blue light while preserving visual contrast.

Asymmetric progressive lenses align intermediate focal zones at matching heights to eliminate head tilting.

Segmenting the lower edge into a thick support and thin area resolves comfort versus stabilization trade-offs.

Spectacle lenses use standardized viewing angles to maintain identical target specifications across multiple users.

Distributes optical power addition between anterior and posterior lens faces to minimize magnification variations caused by wearer eye and head movements.

A progressive power lens uses asymmetric toric surfaces to reduce image sway and magnification differences between distance and near portions.

Fluorescent agents counteract yellow tint from blue light blocking dyes while preserving UV protection and over 80% visible light transmission.

Segmenting the ophthalmic lens central area into nasal and temporal zones reduces lateral aberrations and excessive thickness in non-used areas.

Pulsed voltage control reduces electrochromic switching time by tenfold while preventing oxidative degradation from sustained overpotential.

A lens for eyewear features selective spectral transmittance to reduce red ring distraction and improve focus on the yellow target center.

Specific alkyl-substituted benzophenone resists radical polymerization decomposition, maintaining high blue light absorption and visible light transmittance.

High molecular weight polydimethylsiloxane reduces energy loss to 25-45%, resolving the contradiction between oxygen permeability and on-eye movement.

Alternating refractive index layers create selective spectral bands that enhance primary color contrast while maintaining traffic signal visibility.

Aspheric base curves improve on-eye fit and power delivery accuracy for multifocal contact lenses.

A progressive addition lens design system calculates main lines of sight using accommodative power margin weighting.

An optical lens design uses variable thickness to maintain parallel light paths and achieve clear imaging.

A polymerizable composition using cyclic isocyanates and thiol compounds to form polythiourethane lens materials.

Independent object-side and eyeball-side surface design resolves manufacturing constraints on semi-finished lens thickness distribution.

A progressive addition lens uses computer-aided design to optimize mean refractive power distribution across the optical surface.

Novel xerogel diluents minimize dimensional change upon hydration, preserving mechanical integrity and enabling precise machining of hybrid contact lenses.