Non-Linear Optics TRIZ Cases

Extending pixel electrodes into the peripheral area shields light without separate films, reducing manufacturing processes and complexity.

A liquid crystal display device maintains uniform cell gap through identical thin film layer stacking structures across display and non-display areas.

A vehicle image display mirror uses a liquid crystal cell to transform linearly polarized light into circularly polarized light for clearer viewing.

A clamping member secures a display front plate to a support structure using a U-shaped mechanism.

A spacer frame structure with conductive silver paste enables direct filling of electronic ink microcapsules.

Optimizing end electrode angles between 30 and 40 degrees reduces black disclination lines, enhancing light transmittance and display uniformity.

Placing the conductive film above the common electrode prevents step cuts while the antireflection film suppresses external light reflection.

Trench-filled gate lines reduce signal delay while preserving aperture ratio and insulation integrity.

A display panel uses a hollow area in the transparent conductive layer to expose the color film layer directly.

A liquid crystal display panel uses an electromagnetic shielding wire between pixel electrodes to equalize the electric field.

A polymeric dispersed liquid crystal shutter uses a catoptric form to vary microdroplet sizes during curing.

Alternating high and low sealing portions prevent oriented film spreading to maintain adhesion strength, reducing frame area without compromising reliability.

Segmented metal plates joined by thermoplastic resin reduce material waste while maintaining structural strength in the display device top case.

A liquid crystal display device uses resin film substrates with polarizing plates aligned to stress directions.

Specific cellulose acylate film parameters eliminate color shift at oblique angles while maintaining high contrast ratios in vertical alignment mode.

Segmented adhesive bonding prevents foreign matter entry and air voids in the gap region, maintaining high adhesive force across the entire perimeter.

Segmented supporting structures reinforce flexible substrates, preventing vapor intrusion and curling during bending.

Specific LED spectral widths achieve 100% NTSC color reproducing range, replacing mercury CCFL backlights.

Inclined substrate surfaces in liquid crystal display panels create opposing tilt states to equalize phase delays across viewing angles.

Collective grinding of substrates and sealing agent portions reduces frame width while preventing stress-induced cracks during curved outline processing.

Through holes in the filling pattern bridge conductors and pads, eliminating striation defects from uneven silicon surfaces.

A lens layer separated from the substrate by a space enables higher refractive index differences for improved light utilization efficiency.

A planar electro-optic Mach-Zehnder modulator uses a two-electrode RF transmission line to enable compact integration of optical transceivers.

Varying stripe pattern spacings in pixel electrodes mitigate color shift at side views while maintaining an ideal aperture ratio.

Asymmetric electrode openings suppress irregular dark lines, reducing graininess and ensuring uniform liquid crystal molecule alignment.

A tunable acoustic gradient index lens modulates fluid refractive index via piezoelectric acoustic waves to steer light beams.

A grounded conductive shielding layer in the periphery region rapidly discharges induced charges from gate leads.

Switchable optical gratings and birefringent lens sets rotate polarization directions, enabling simultaneous 3D portrait and landscape display modes.

A groove with an underlying metal layer prevents alignment film leakage and protects interconnects from corrosion.

Merging common and pixel electrodes into one photolithography step reduces manufacturing steps from eight to four, lowering costs while maintaining precision.

A protrusion column replaces the sub photo spacer in array substrates using combined color filter and black matrix mask processes.

A transparent ion-selective membrane separates compartments to prevent self-erasing and reduce power consumption.

Parallel polarizers with sequential wave plates reduce black luminance from side light scattering, improving front contrast ratio.

Asymmetric support members and groove barriers prevent ion precipitation that causes image sticking while maintaining cell thickness uniformity.

A second thin film transistor connects sub-pixels to stabilize electric potential in liquid crystal displays.

Diffusely reflecting layers scatter pump light and fluorescent film emission to resolve brightness nonuniformity across the visible display area.

A planarizing layer fills height differences between the black matrix and color filter, ensuring surface smoothness for uniform rubbing.

Electrically controlled half waveplates switch polarization states to adjust focal lengths, resolving vergence-accommodation conflict in near-eye displays.

Cascaded difference frequency generation using multi-line optical spectra boosts THz conversion efficiency and pulse energy beyond conventional limits.

Integrating columnar spacers into light shielding regions prevents leakage while maintaining substrate intervals across varying temperatures.

Complementary segmented electrodes eliminate light leakage and strip visibility in dimming panels by aligning liquid crystal molecules.

Overlapping adjacent electrodes prevent light escape between transmissive portions, resolving crosstalk in multi-viewpoint display apparatuses.

Embedding spacers in substrate recesses prevents lateral sliding into sub-pixel regions, reducing light leakage and bright spots.

Multi-layer optical film replaces thick diffusion sheets by using prism and pyramid patterns to reduce hot spot visibility in mini LED backlight units.

Placing the termination resistor in a substrate groove eliminates height variations that cause resistance drift during monolithic integration.

A transflective liquid crystal display device uses a gap retaining pad to stabilize the substrate gap across pixel electrodes.

Optimized reflector geometry directs LED light through reduced quantum dot resin, resolving the trade-off between color quality and production cost.