Non-Linear Optics TRIZ Cases

A TFT array substrate uses upper layer electrode slits with angles less than or equal to 90 degrees paired with absent regions on the lower layer electrode.

An optical compensation layer formed of reactive mesogen in the color filter array reduces light leakage.

Segmented circular arc and strip electrodes on opposing substrates enable real-time frequency tuning without energy attenuation.

Multi-layer conductive wiring structure in slim border display panels avoids spacer damage through strategic positioning.

Specific retardation films suppress oblique light leak to maintain high contrast ratio in transflective vertical alignment displays.

A chiral nematic liquid crystal modulator tilts its optic axis via the flexoelectro-optic effect to achieve high-speed phase modulation.

A pixel structure places a reflective feature beside the TFT to direct backlight light toward the viewer.

Integrating an adhesive member on a roof layer seals microcavities and prevents liquid crystal contamination during polarizer attachment.

A liquid crystal display device uses segmented light shielding layers to protect semiconductor components from stray illumination.

A dimming liquid crystal layer with tilted polymer networks selectively transmits light at specific viewing angles.

A spacer layer with a filler grid and protruding supporting part fills grooves between pixel regions to eliminate image retention from uneven surfaces.

Segmented connection portions route common voltage through non-display regions, resolving the trade-off between aperture ratio and electrical connectivity.

Removing polarizers and color filters from a PDLC panel increases light penetration rate while a quantum dot layer maintains backlight utilization.

Intersecting strip electrode patterns in stacked liquid crystal cells prevent moiré and non-uniform brightness by controlling polarized component diffusion.

Variable dimension GOA units in rounded corner regions optimize peripheral space usage, resolving narrow bezel constraints without increasing wiring complexity.

Extends common electrodes vertically to overlap gate lines, creating a compact shielding structure that increases pixel aperture ratio.

Dual sealing frames on the pixel electrode regularize edge electric fields, eliminating dark patterns and improving view angles in VA-type LCD panels.

A block copolymer stabilizer anchors dyes within polymer particles to prevent leaching in non-polar media.

Multilayer antireflective film with alternating high and low refractive index oxide layers reduces visible light reflectance to 1% or lower.

Common electrode end parts overlap data lines to repair broken signals while angular pixel electrodes improve panel transmittance.

A backlight spacer with protrusions adheres to optical layers, preventing sagging while preserving vacant space diffusion.

Segmented reflective sheet holes and tapered supporters prevent light source contact, improving assembly convenience and reliability.

Extending the electrostatic path through the plate thickness improves ESD protection while reducing occupied space and simplifying assembly.

Positioning columns and pressing blocks fix optical films in direct-lit backlight modules, preventing displacement and scratches during vibration tests.

A lens structure uses center and edge electrodes to create a controlled electric field that aligns liquid crystal molecules uniformly.

A flexible display substrate uses a deformation-preventing portion to stabilize the thin film during manufacturing.

Replacing magnetic materials with acousto-optic interaction, this device achieves broadband isolation compatible with standard CMOS fabrication processes.

A transparency-adjustable film modulates light through a three-dimensionally ordered pore array tilted from the vertical direction.

Segmenting the sealant into a ring and an external junction simplifies dispenser control, ensuring uniform cell gaps and reducing production time.

Composite meta structure expands diffraction angle range to resolve limited acousto-optic conversion efficiency in conventional devices.