Non-Linear Optics TRIZ Cases

Zigzag pixel electrode branches create multi-directional electric fields to improve side visibility without reducing aperture ratio.

An electrochromic device forms an interfacial region between electrode layers to enable ionic conduction without a separate insulating layer.

A unified material structure merges the etch stopping layer with source and drain electrodes to simplify manufacturing steps for light sensing transistors.

Splitting input and output electric wiring across different substrate surfaces reduces crosstalk and area while maintaining characteristic impedance.

Alternating solid and mixed color sub-pixel columns control illumination to reduce edge aliasing without increasing manufacturing costs.

Dual-height black matrices maintain cell gaps and block light, eliminating spacer masks to reduce manufacturing complexity.

Ladder patterned sub-pixel sectors in an LCD panel reduce diffraction loss and raise the color to white ratio above 50 percent.

An overlapping gate line blocks electric fields to prevent light leakage while maintaining aperture ratio.

A refractive cover shapes light from a Distributed Bragg Reflector LED to improve extraction efficiency.

A display array substrate uses transfer lines on different metal layers to connect short-circuited bars for pixel alignment.

A color filter pattern fills an insulating layer opening to block display light from reaching the sensor substrate.

Short sidewalls on the panel carrier protect wire bonds while thin conductive adhesive reduces glue volume, lowering cost and conductivity failure risk.

Merges reflective layer and touch sensor functions on a single substrate, eliminating external panels to boost light transmittance.

A liquid crystal waveguide uses electrodes to alter optical phase delay for polarized light.

A display device uses a color adjusting layer with wavelength transformation materials to convert blue light into red and green light.

Segmenting the pixel electrode into main and sub-pixel regions creates voltage differences that shorten response time in large displays.

Removing the compensation film between pixel and barrier layers reduces distance while maintaining contrast through refractive-index anisotropy.

Alternating amorphous graphene and thin film dielectric layers form a multi-stack structure modulated by an electric field former.

An inorganic buffer layer mediates stress between polymer substrates and glass carriers in flexible liquid crystal devices.

A cholesteric liquid crystal layer operates in a reflective state to control light transmission for display panels.

A transparent common electrode structure for IPS LCD array substrates uses a double layer of transparent and opaque materials to form alternating pixel electrodes.

A liquid crystal display uses an alignment layer thicker than the pixel electrode to control voltage differences across subpixel electrodes.

Hollow support layers with lower refractive index media guide ultraviolet light for deeper penetration into sealant adhesive.

Integrating optical components into a single assembly reduces device size and production costs while maintaining effective light path switching.

A display panel uses varying encapsulation thickness and mesh electrode line widths to enhance touch control accuracy.

A blocking structure surrounds an alignment mark on a display substrate to intercept residual particles during the rubbing process.

A printing apparatus uses a planar plate with recesses to deposit bead spacers, preventing multi-layer stacking that causes light leakage.

Inorganic transparent electrode layer between resin and reflective film prevents gas-induced deterioration and crease formation.

A liquid crystal manufacturing apparatus uses a stage and substrate holding unit to bond substrates with precise alignment.

Extension electrode with slit overlaps contact holes to strengthen liquid crystal restoring forces, reducing molecular misalignment and display smudges.

Wider metal traces and optimized pad openings compensate for manufacturing deviations, reducing light energy loss and improving efficiency.

Varying optical film distance redistributes light to eliminate peripheral dark bands without increasing manufacturing costs.

Pins impact a dummy region to separate an LCD panel from a substrate, preventing incomplete separation and dust generation during transfer.

A transflective LCD device uses an insulating layer to reduce dark-state light leakage, thereby enhancing image contrast and aperture ratio.

A color separation diffractive element substrate separates incident white light into distinct RGB wavelengths and directs them toward corresponding subpixels.

A flexible circuit substrate with a protruding reinforcement plate and resin layer forms a protective barrier on connected electrodes.

Pad segmentation with independent shorting bars prevents false defect detection during LCD testing.

A backlight source uses a flexible circuit board connected via through-holes to distribute light sources evenly.

A direct type backlight module frame body includes a light transmitting portion and a reflecting portion to route illumination beams toward display edges.

A transparent display uses a reflective liquid crystal layer modulated by electric fields to control light dispersibility across color filter regions.

Controlling alignment protrusion optical density between 0.3/μm and 3/μm minimizes light leakage in dark conditions while maintaining wide viewing angles.

A display device integrates a conductive foam gasket assembly with the structural bracket to dissipate static electricity from internal components.

A transflective liquid crystal display panel uses slit electrodes on reflective and transparent areas to align liquid crystals for improved optical performance.

A transflective liquid crystal display merges the reflective and connection electrodes into a single structure to increase the transmissive aperture ratio.

A light-enhancing layer scatters ambient light to boost color intensity in electrophoretic displays.

Superimposed color filter patterns shield light at gate line positions, eliminating the need for a separate black matrix to improve aperture opening ratio.

Integrating a conductive layer on the polarizer connects substrates through holes, preventing static buildup that misaligns liquid crystal molecules.

Variable-length color filters on non-emitting regions block stray light from adjacent white emitting areas, preventing leakage without a black matrix.

A thin film transistor structure incorporates a dedicated space region between source and drain electrodes to contain liquid crystal molecules directly on the substrate.