Optical Articles TRIZ Cases

Embedded microactuators shift position within a hydrogel layer to reversibly change optical properties without external power.

A wafer-level lens system uses multiple aspheric elements made from different materials to correct optical aberrations.

Controlled ultraviolet light intensity ensures consistent polymerization of silicone hydrogel contact lenses, eliminating surface defects from uneven curing.

Non-transfer portions in a plastic optical element absorb resin shrinkage, preventing sink formation and maintaining beam waist diameter.

Heating a film structure above the lens glass transition stabilizes the base lens shape during manufacturing.

Integrates a black-dyed lens edge region with the optical part to reduce device thickness and prevent light leakage in mobile terminals.

Embedding a photosensitive material into a lens cavity forms a holographic optical element that reduces device bulk and maintains normal eyewear form factor.

A film-forming composition for optical imprint uses low-viscosity monomers and inorganic nanoparticles to achieve high refractive index curing.

Fenton chemistry generates hydroxyl radicals to graft hydrophilic coatings, eliminating UV irradiation and reducing process complexity.

Liquid reflective substance embeds pellets halfway in the covering, resolving manufacturing complexity while ensuring uniform properties after sterilization.

Optimized silicone concentration and PEG molecular weight resolve opacity and stability trade-offs.

An inorganic lubricating compound prevents scratches on electrochromic stacks, avoiding residues from organic peelable films.

Segmenting the lens into a rigid optical core and soft comfort layer resolves the trade-off between effective astigmatism correction and wearing comfort.

A dichroic mirror enables passive horizontal coupling to reduce side profile height and avoid active alignment.

Segmented optical component design reduces mechanical stresses and optical aberrations by isolating large-volume regions from the primary molding process.

Segmenting lens blanks reduces material removal during machining, minimizing waste while maintaining versatility for various lens shapes.

Spaced adhesive segments bind adjacent optical fibers, preventing tangling and preserving color-coded order for accurate device connection.

Thiol-ene step-growth polymerization of actinically crosslinkable amphiphilic prepolymers resolves manufacturing precision trade-offs in cast molding.

Melt blending two polycarbonates with distinct endcapping ratios eliminates dust attraction while preserving optical transparency and mechanical strength.

Integrates modulation transfer function detection with centering measurement using an autocollimator for optical systems.

Leader pins guide mold halves into precise alignment before contact, eliminating edge damage and polymer waste during lens manufacturing.

A method stabilizes optical integrated computational element transmission spectra through targeted annealing processes.

Physical camera alignment with mold centering marks eliminates complex image processing algorithms for defect detection in colored contact lens manufacturing.

UV curing solvent-free silicone hydrogel mixtures boosts oxygen permeability and water content while preserving mechanical strength.

Radical-curable dye composition prevents elution during ink-jet coating, eliminating alkali treatment needs.

Segmented injection molding temperatures reduce internal stresses and cooling times while maintaining optical imaging properties.

Forming mirrors directly on the core layer reduces manufacturing complexity and prevents crosstalk noise.

Microlenses enlarge simplified microimages to create color gradations, suppressing moiré interference patterns that reduce image brilliance.

A silicone resin lens achieves precise optical performance through controlled molecular cross-linking.

An ophthalmic apparatus uses an abnormality detection optical path to generate interference signals for real-time state monitoring.

Chamfered channels form a containment lip that holds coating solution, preventing leakage and mold contamination in edge-gated injection molds.

Rounded lens edge transitions prevent paint accumulation at sharp corners, maintaining usable optical area during wet coating.

Segmenting the lens into coated and uncoated zones prevents unwanted color changes from ambient radiation while maintaining UV protection in designated areas.

Strategic molding gate positioning on resin lenses reduces weight while minimizing optical distortion in binocular observation devices.

Trapezoidal glass members fix to bases via lateral pressing, preventing warpage and resin leakage in optical fiber re-coating devices.

Thermal curing of liquid PDMS on heated substrates eliminates mold complexity while achieving 10 μm imaging resolution.

Triangular tabs and pallets align mold halves to eliminate tilting, ensuring accurate sphere and cylinder power distribution.

Shrunk cut traces and clearance surfaces channel overflow material outside the optical effective section, eliminating welding lines that degrade image quality.

An ultrasonic discharge nozzle atomizes photochromic coating compositions into controlled droplets for precise lens application.

An angled actuator electrode creates electrostatic force to move the shutter mirror, resolving assembly complexity while maintaining high optical isolation.

Interchangeable port units bond to a terminal housing, resolving the trade-off between customization flexibility and manufacturing complexity.

Rotating mold halves eliminate production interruptions by allowing automatic reconfiguration of male and female molds for different toric lens orientations.

Plasma-treated prime layer supports thermally crosslinked hydrogel coating, resisting antimicrobial deposition while maintaining low surface friction.

Composite aqueous compositions with controlled water content eliminate energy-intensive concentration steps while maintaining EW30 fire resistance.

A resin lens production method combines polyisocyanate with modified isocyanate and sulfur-containing compounds to form cross-linked structures.

Molten lens material forms curved shapes using surface tension for precise micro-scale fabrication.

Orienting the fast axis below 45 degrees on a curved substrate minimizes birefringence variation caused by uneven stretching during film attachment.

Vibration-resistant interferometer with automatic alignment system delivers precise measurements despite environmental turbulence.

A segmented manufacturing process bonds rigid and flexible lens disks using adhesive layers to form a stable hybrid optical component.

A micro-optical retainer uses a tapered recess and spherical cap to secure optical components via adhesive bonding in a defined gap.