Non-Linear Optics TRIZ Cases

A plasma layer uses charged particles with varying sizes and charges to improve light reflection and absorption efficiency.

Rectifying solidified electrolyte reduces cross-talk without adding diode layers to passive-matrix displays.

Larger second open regions in the dummy region accumulate etching residues, preventing short circuits and improving display quality.

Asymmetric V-shaped pixel electrodes create uniform electric fields that prevent disclination lines and maintain high transmittance in LCD panels.

A display apparatus uses a vertical capacitor structure to stabilize electrostatic capacitance.

Dummy electrodes compensate for wiring line unevenness to maintain uniform cell gap across the display substrate.

A fringe field switching liquid crystal display pixel electrode uses a border link pattern to connect finger portions and increase torque.

Using the metal substrate as a storage capacitor electrode prevents parasitic capacitance that distorts data voltage.

Adjusting common electrode slit areas compensates for peak transmittance voltage differences among red, green, and blue pixels to maintain white balance.

Asymmetric backbone and spine electrodes reduce field pattern differences that cause disclination, improving display quality.

A concave lens reflector focuses display light while circular polarizers suppress stray reflections, enabling clear mixed reality viewing.

Optimizing contact hole geometry and alignment film thickness to ensure uniform coverage across pixel electrodes.

Strategic boss structures protect alignment films from spacer displacement in liquid crystal display panels.

Placing adjacent data lines in the same layer reduces parasitic capacitance and impedance differences, enhancing brightness uniformity in OLED displays.

Segmented common electrodes create an equipotential surface that shields leaked electric fields from source lines, reducing capacitance and display degradation.

A display panel motherboard uses energy beam cutting to separate substrates while minimizing organic film layers in the cutting region.

A display device applies a dummy light-shielding pattern on a dimming panel to equalize aperture ratios and suppress luminance moire interference.

Restraining elements force the conductive sealant into dielectric openings, eliminating silver paste dispensing to improve cell gap control.

A pixel structure with specific dielectric layer configurations maintains consistent feed through voltage during repair.

Varying supporting structure heights resolve insufficient liquid crystal spacing to improve image quality.

A connecting member with a tapered portion maintains secure electrical contact between substrates in compact display devices.

Segmented pixel electrodes with directional alignment protrusions suppress disclination and light leakage while maintaining wide viewing angles.

Angled polarizer axes suppress light shade artifacts in imaging zones, enabling narrower bezels without compromising captured image clarity.

Adding an inductor to the p-n junction circuit expands bandwidth by storing signal energy, resolving the trade-off between power consumption and speed.

A liquid crystal display spacer uses a wider top surface to distribute external pressure and enhance lateral friction.

Angled rubbing direction on the alignment film prevents luminous regions appearing near light shielding part boundaries, enhancing stereoscopic image quality.

Composite insulating films protect oxide semiconductor transistors from moisture ingress.

A backlight module adds a light conversion layer to the quantum dot film edge area to emit red and green light.

A planar metasurface optical component uses an active liquid crystal medium to induce switchable phase profile modulation on incident electromagnetic radiation.

Liquid crystal display alignment layers define multiple molecular orientation domains to widen viewing angles without complex electrode slits.

Optimized slit lengths between 12 and 30 micrometers in segmented electrodes reduce response time without increasing defective fractions from foreign materials.

A secondary opening promotes heat dissipation outside the mirror shell, preventing internal temperature buildup that degrades video display performance.

Strategic first slit placement between touch electrodes and signal wires reduces visual impact on low gray-scale images while preserving touch sensitivity.

Black matrices cover opaque and dark strip regions between pixel electrodes to expand the active display area in PSVA panels.

A reflection control layer on opaque metal electrodes manages external light reflectivity in liquid crystal displays.

Asymmetric liquid crystal domain areas in VA displays resolve the trade-off between front contrast and wide viewing angle side visibility.

A reversible electrochemical mirror integrates a semi-transmissive film and electrolyte solution to adjust optical properties via metal deposition.

Segmented seal pattern insertion groove and anti-spreading grooves prevent outward spreading of the sealant to enhance bonding force.

Segmented quantum dot layers and dual light-blocking masks prevent staining while maintaining high illumination intensity.

Splitting sub-pixels with capacitive coupling expands the aperture ratio while maintaining liquid crystal orientation for improved brightness.

A columnar spacer tip end rests in a resin-filled recess on a TFT substrate to suppress lateral displacement and maintain light transmittance.

Stacked microlens layers guide incident light to interfaces where total internal reflection occurs, resolving low reflectance in reflective displays.

A display panel structure uses a black matrix and gate layer to shield light from the poly silicon layer.

UV curing sets cholesteric pitch lengths in a liquid crystal film, enabling multicolor reflection without electric fields or conductive layers.

Recessed portions in the lightguide plate redirect trapped light modes to improve extraction efficiency while maintaining a thin backlight profile.

A liquid crystal display device combines IPS and IPS-Pro electrode structures to enhance optical transmissivity.

Electronic ink employs 20-50 nm inorganic pigment particles to resolve the trade-off between stability and response speed, achieving high image definition.

A liquid crystal display configuration leaves the outer perimeter of the upper polarization plate unattached to the protection plate.

Peripheral reflection structures redirect light from edge sources to resolve nonuniform luminous flux and eliminate the bluing phenomenon at display edges.

Hydrogen plasma treatment cleans the pixel electrode surface while preventing indium precipitation that causes image haziness and reduces transmittance.