Non-Linear Optics TRIZ Cases

A display device optical stack uses a transparent solid with almost zero refractive anisotropy to maintain polarization states.

Dual-substrate electrode structure generates transverse electric fields to switch liquid crystal layers between transparency and scattering modes.

A liquid crystal display device employs a patterned second common electrode to eliminate light leakage and enable pixel miniaturization.

Slit pixel electrodes separate domains while keeping connecting portions narrow to prevent display unevenness and preserve aperture ratio.

A metamaterial layer polarizes emitted light directly from the device structure.

Segmented substrates and a member layer extend toward the frame, allowing an exposed display panel while maintaining structural rigidity.

A pixel electrode with a tapered comb shape and overlapping columnar spacer prevents reverse liquid crystal rotation.

A display device switches electrode voltages to control light-shielding sections without darkening the screen.

Segmenting the alignment electric field allows the non-display area to drive faster response speeds while the display area maintains high contrast ratios.

A flexible display panel design incorporates a rigid substrate within the bonding region to support solder pads and buffer layers.

Four optical surfaces redirect light through internal reflections to eliminate dark points caused by small light-emitting elements.

A liquid crystal display pixel electrode uses asymmetric sub branches and a node-controlling portion to stabilize molecular alignment.

Multi-domain alignment azimuths in a twisted vertical alignment liquid crystal display compensate for low contrast ratios in specific azimuths.

A liquid crystal display device uses variable interlayer insulating film thickness and permittivity to manage electric field distribution across sub-pixel regions.

A liquid crystal display pixel structure positions gate lines to overlap domain edges, covering dark lines and raising aperture rates.

Active electrochromic components shift color to create dynamic optical effects in metameric security structures.

A liquid crystal display merges data driving circuits through shared switching elements to enhance side visibility and transmittance.

Varying slit widths and asymmetrical edges create diverse voltage transmittance characteristics that reduce coloring in liquid crystal displays.

A positive biaxial retardation film and negative C plate configure an in-plane switching mode liquid crystal display device.

Segmented data lines with perpendicular connection lines prevent crosstalk disturbances between signal paths and pixel electrodes.

A terahertz wave generator employs a nonlinear crystal and reflection optical system to produce electromagnetic waves.

Merging film transfer with laser curing reduces process time while enabling bezel-less display integration through reliable side-surface bonding.

Reversible photochromic compounds in optical glue films counteract sunlight-induced discoloration, maintaining visual fidelity during outdoor use.

Segmented common electrode creates diversion lines that prevent polyimide liquid blockage, eliminating mura defects in LCD panels.

A nonlinear fiber interferometer uses two gain-balanced stages to amplify probe and conjugate sidebands via four-wave mixing.

Compressed air jets form supporting columns to hold the diffuser plate, eliminating physical supports that block light and cause shadows.

Patterned electrodes connect to distinct reference voltages across substrate shots.

A photosensitive film adjusts transmittance based on gray level brightness to enhance display contrast.

A poly-silicon liquid crystal display device integrates thin film transistors with storage capacitors using a shared gate electrode structure.

Dummy pixel electrodes in non-display areas align liquid crystal materials during phase separation, preventing red light leakage at panel edges.

A waveguide grating display device regulates light output via liquid crystal refractive index changes.

A guide frame redirects bending stress on flexible printed circuit boards within display apparatuses.

Photo spacers in pixel spacer regions reduce light leakage and Newton rings while maintaining structural integrity.

Integrating a protruding support portion into the partition suppresses optical member undulation without creating light-leaking recesses.

A reflective stack creates a folded beam path to diffuse light, resolving non-uniform illumination and hotspots without increasing backlight thickness.

A double-layer alignment film structure with a photoreactive upper layer and strong lower base prevents columnar spacer shaving on plinth surfaces.

An electrochromic assembly modulates ambient light transmittance to enhance display clarity in bright environments.

A wall electrode pixel structure localizes the shortest portion between electrodes to stabilize domain boundaries in liquid crystal displays.

A special-shaped display panel uses a peripheral light-shading layer to define the display area and manage edge pixel transmittance.

A transferrable thin-film optical device preserves molecular patterns during separation and reattachment to various substrates.

Configuring distinct electrode shapes and liquid crystal layer thicknesses across red, green, and blue subpixels synchronizes switching speeds.

Silver paste bridges the high-resistance film edge to the TFT ground pin, accelerating static dissipation without compromising touch signal transmission.

Curved slit electrode ends concentrate electric fields to orient liquid crystal molecules, reducing dark areas and afterimages in ADS-mode displays.

A light-controlling device uses a grooved first electrode and hollow space to concentrate charged particles.

Segmented pixel electrodes with varying shield distances improve gamma mixing uniformity at low gray levels while reducing vertical crosstalk in LCD panels.

Segmenting LEDs into a thermally integrated tile matrix resolves brightness non-uniformity in large displays while reducing structural complexity.

A diffusion preventing portion with a thinner electro-optical layer sits between pixel electrodes and ion trap electrodes to sweep ionic impurities.

Segmented multi-layer electrode structure prevents pinhole defects in thin pixel films while maintaining anchoring force and reducing residual image issues.

An auxiliary electrode overlaps the data line on a single substrate to compensate for microcavity thickness variations and prevent light leakage.