Non-Linear Optics TRIZ Cases

Fastening bent portions constrain source printed circuit boards to prevent movement during cable insertion, resolving assembly inefficiencies.

Integrating quantum dots into a Chip On Board light source plate eliminates separate conversion sheets, reducing device thickness and production costs.

A lens array pre-condenses light beams to reduce unwanted steering effects and fringing fields in liquid crystal devices.

Dual-stage curing of a low-shrinkage resin eliminates light scattering gaps and prevents panel deformation during manufacturing.

Segmented primary and auxiliary support pillars align with signal wire convex areas to prevent light leakage from uneven surfaces.

Matching white color coordinates across sub-pixel combinations resolves color distortion while maintaining high brightness.

A liquid crystal member with a non-flat surface maintains uniform alignment through region-specific slow axis orientation.

Mirror-image sub-pixel arrangement compensates for unequal domain areas to eliminate gray scale inversion and image retention.

An optical film covers the border between a display panel and a light shielding component, reducing edge peeling while maintaining a frame width under 1 mm.

A COT LCD uses a shared organic material for white patterns and column spacers.

Placing spacers on low-transmittance electrodes masks light leakage from disordered alignment, enhancing contrast and view angle.

A color conversion panel integrates a scattering layer with dyes to prevent optical cross-talk and maintain color reproducibility in liquid crystal displays.

Quantum dot shells absorb blue LED light and emit specific red and green wavelengths, preventing near infrared blooming in night vision goggles.

Switched grating couplers route optical signals to different angular orientations, eliminating mechanical complexity in photonics chips.

A display panel uses a first film layer with specific refractive indices to increase the critical angle of total reflection.

Intermediate member maintains gap between front plate and chassis to prevent display unevenness during touch operations.

A display module manufacturing method fills a peripheral space with sealant to create a reliable package layer.

A control electrode structure uses a low dielectric layer to enhance high-frequency signal propagation speed in optical waveguides.

Centering transparent electrodes boosts light transmittance while resolving aperture ratio constraints in high-definition displays.

A counter substrate with a peripheral barrier wall maintains uniform cell thickness across the display area.

Varying sub-pixel thickness in the display medium resolves low brightness and high material costs from uniform photo-resist structures.

Main and sub-column spacers prevent smear phenomena and active unfilled areas by securing stable step heights during manufacturing.

Differential anchoring between alignment films and a phase-separated polymer network improves response speed while maintaining alignment precision.

Segmented pixel electrodes surrounded by common regions prevent electric field leakage between pixels while maintaining image quality.

A quantum emitter device generates single photons via resonant scattering along a propagation path.

An inclined substrate step structure minimizes yellow shift and chromaticity variations in semi-transmissive liquid crystal displays.

Integrates light-shielding portions with gate and data lines on an array substrate to prevent light leakage in non-display regions.

A bridging wire in a third metal layer connects first and second wires to eliminate stepped angles on transition hole sidewalls.

An inverted mesa ridge waveguide reduces contact resistance and stabilizes electrical performance in high-speed modulation by diffusing hole carriers.

Segmented slit electrodes with gradient dimensions optimize electric field intensity to reduce disclination in horizontal alignment displays.

Alternating adhesive regions distribute stress across the perimeter, preventing flexure-induced light leakage in IPS or VA mode displays.

Separating reflective members via a multi-gap layer reduces electric flux line interference, improving design flexibility and display quality.

Dual insulation layers mask electrode etching to achieve sub-micron widths, resolving low transmittance limits in IPS LCDs.

A display panel adjusts pixel aperture ratios in parallelogram regions to smooth irregular edges.

Insulative protrusions in a liquid crystal layer control light propagation direction to switch between peep-proof and shared display modes.

A semi-transmissive in-plane switching liquid crystal display panel uses storage capacitors to generate distinct horizontal electric fields.

Separating common electrodes across substrates eliminates vertical electric field components that increase driving voltage and limit viewing angles.

Tape thickness exceeds polarization plate by 0-50 μm, resolving adhesion and foreign matter ingress issues in thin displays.

Overlapping pixel electrode slits on the TFT array substrate create a multi-domain electric field that prevents position errors between substrates.

A quantum dot diffuser plate uses composite materials to enhance light diffusion and brightness.

High and low refractive transparent layers on a color filter substrate reduce cross-color between adjacent pixels while maintaining high transmittance.

A metal retaining wall structure prevents PI overcoating and improves adhesive strength by confining alignment liquid.

An external blocking wall on a display motherboard contains sealant during cutting, maintaining width and preventing puncture defects.

A wavelength converting optical system generates an eighth harmonic wave using sequential nonlinear elements and dichroic mirrors.

Planarization layer openings reduce contact hole mouth size in fringe field switching liquid crystal displays.

A polarization-selective scatterer dims ambient light in near-eye displays by scattering specific polarization states while transmitting display light.

Orientation grooves in the alignment film create multi-domain structures that compensate color cast while maintaining high aperture ratio.

A liquid crystal layer dynamically modulates light transmittance based on detected intensity to prevent eye stimulation from high-brightness images.

Embedding a connecting member inside a relay layer resolves aspect ratio challenges in contact holes while maintaining optical performance.