Optical Articles TRIZ Cases

A rotating adhesive resin conveying roller applies intermittent bonding between optical fibers.

A segmented optical coating combines a fine-structure metal oxide layer with an inorganic hard layer to deliver durable anti-reflection performance.

A single mask defines vertical slabs and the waveguide core simultaneously, eliminating separate etching steps that increase fabrication complexity.

Embedding an electrochemical cell inside the lens structure supplies power to active elements, enabling dynamic optical changes without external wiring.

Applying liquid material to a mold surface creates a temporary elevation that transfers as an indentation on the molded device.

Thermal conditioning and barrier coatings maintain stable surface tension, preventing fluid ingress and microbial growth.

Casting fluid around coatings eliminates assembly time and reflection losses for mixed reality optics.

Integrating micro lenses and image elements into a single unitary structure eliminates dual-sided substrate requirements while enabling bidirectional viewing.

Single-step replication merges optical and spacer patterns to eliminate alignment complexity while maintaining dimensional control across the wafer.

Composite coatings combine acrylic polymer antifouling with alkoxysilane hardness to resolve fouling versus wear trade-offs.

An artificial eye lens integrates a medication repository within its haptic structure to deliver therapeutic agents directly to the eye.

Dual high intensity UV exposure cures the color coat and treats the mold surface, achieving high ion permeability and preventing print smudging.

A guide body centers optical fibers within a capillary, preventing twisting and eccentricity that increase numerical aperture.

An adapter system houses electro-active lenses within standard spectacle frames.

Spatially distributed electrode surfaces on a flexible core reduce capacitance and signal interference for accurate neural measurement.

Segmented cutting tools form perpendicular V-grooves to eliminate microscopic gaps and reduce manufacturing costs for high-precision molds.

Dual view windows route external images to sensors and internal images to the eyeball, enabling versatile functions without increasing device complexity.

Mechanical interlocking of the light guide body and image forming optical device eliminates adhesives, enabling efficient component separation during recycling.

Pressure feedback control maintains optimal mold position during resin curing, preventing sink marks and improving surface accuracy.

Encapsulating decorative elements within transparent plastic lens mass during molding protects components from damage while maintaining optical clarity.

Resolve costly mold insert fabrication by using inversion and copying principles to create high-accuracy micro-/nanostructures.

A conforming apparatus uses a mechanical piston to transfer functionalized flexible films onto optical lenses.

Pre-trained neural networks predict optical lens parameters, reducing real-time computation time and server resource consumption during peak demand.

Molding resin onto a pre-formed glass ball lens creates a stable reference face, eliminating body tubes and ensuring reliable optical alignment.

Post-mold UV curing prevents cracks in optical thin films during injection molding.

A multi-cavity optical molding die uses independent electrothermal elements and sensors to stabilize temperature across all cavities.

Infrared laser radiation induces near-surface material changes in transparent optical elements for permanent marking.

Covalent 6-membered acetal rings attach a hydrophilic polymer to the lens, eliminating organic solvents and improving wear comfort.

Pre-stretch coating forms the ink receiving layer before substrate stretching, resolving adhesiveness issues between layers.

Pulsed laser ablation creates planar GRIN lens faces, preventing heat accumulation and spherical aberrations during fabrication.

Injection molding creates a seamless curved cover lens by integrating the touch sensor layer, eliminating adhesion seams and air gaps.

Liquid immersion prevents ophthalmic lens drying and adhesion during vacuum grasping and overpressure release.

An insert assembly integrates bounding structures into an injection mold to form intraocular lens and haptic cavities in a single casting step.

Embedded light sensors detect eyelid occlusion patterns to calculate optimal focal length for automatic focus adjustment.

An adhesive carrier frame reduces clamping pressure on brittle substrates, preventing cracks while enabling simultaneous device molding.

Composite coating simplifies production by eliminating complex multilayer processes while enhancing surface lubricity.

Inclined mould rims guide halves for centration, preventing flash and edge seams without interference fits.

A covering member with a recess portion refracts light from the source to enhance external extraction.

A tapered silicon oxynitride waveguide compresses optical signals between fibers and photonics chips.

Dissolving a temporary soluble insert creates an internal cavity in the hydrogel, reducing manufacturing complexity while maintaining optical performance.

Gradient nanoindentation hardness on a photochromic film surface enables dye movement while preventing clouding and striae formation during cast polymerization.

A multilayer optical coating uses alternating high and low refractive index materials to reduce backside reflection on eyeglass lenses.

Curing bicyclic alkyl precursors forms resins that resist warpage and wrinkles during high temperature processing.

Segmented boundaries combine sharp functional transitions with blended aesthetic zones to reduce vision distortion in multi-focal lenses.

Laser beam etching creates controlled stereostructures on optical film molds, suppressing Moire and Newton ring defects while maintaining brightness.

Alternating refractive index layers in a MEMS pellicle beamsplitter eliminate polarization noise and beam walk-off.