Non-Linear Optics TRIZ Cases

A device substrate uses segmented light shielding portions to reduce parasitic capacitance and improve display uniformity.

A protrusion electrode overlaps data lines to enhance electric field control at pixel edges.

A step smoothing member under a lower substrate eliminates height differences in liquid crystal display assemblies.

Protruding spacer strips modify pixel electrode geometry to strengthen the horizontal electric field across the array substrate.

Vertical separation of the common electrode from signal lines reduces parasitic capacitance and crosstalk while stabilizing pixel potential for higher contrast.

Dummy wiring grounds static electricity outside the pixel area, preventing contrast decrease and chrominance non-uniformity in liquid crystal displays.

Removing common electrode segments from overlapping regions minimizes coupling capacitance asymmetry, alleviating horizontal crosstalk in 8K displays.

Engineered differential electrode pairs apply electric fields to lithium waveguides, reducing microwave signal absorption and driving voltages.

Segmenting polarizing plate absorption axes enables controlled thermal contraction during annealing for multi-curved liquid crystal display panels.

A color conversion panel uses photosensitive resin layers to emit distinct colors and block light between adjacent regions.

Photoinitiator-based curing of electrochromic fill port plugs prevents incomplete polymerization, reducing leakage risks and improving device reliability.

A segmented pixel electrode structure with intersecting stems and branches modulates liquid crystal alignment to enhance light transmission.

A translucent conductive film positioned on the second substrate shields static electricity by maintaining a predetermined electric potential.

A liquid crystal display uses orthogonal orientation grooves to stabilize molecular alignment without voltage.

Segmented tiled electro-optic units resolve the contradiction between large device area and optical transparency using transparent conductive vias.

A display panel with differentiated pixel electrode overlap ratios in functional and normal areas to enhance driving ability.

Grooved first electrode confines alignment film coating liquid within defined regions to prevent overflow onto adjacent sealing members.

Segmented container division parts join via fitting members, eliminating multiple molds and reducing production costs.

A diffractive optical element with specific grating regions redirects light to enhance contrast and brightness uniformity across various viewing angles.

An acousto-optic deflector arrangement eliminates mechanical inertia and half-wave plate dispersion to maintain high bandwidth during rapid 3D scanning.

A rear frame with an inner bent component fixes a plastic display support while serving as the external housing.

Non-rectangular thin film transistor substrate regions position terminal portions outside laser irradiation zones.

Thin-film and bulk thermoelectric devices extract heat from LEDs, preventing color deviation caused by high temperatures.

A reflective layer on the second substrate assembly redirects light from the non-display region back to the backlight module.

Inclined prism sheets suppress moiré patterns by matching subpixel pitch and angle.

Simultaneous curing voltages on common electrodes ensure pixel electrode voltage ratios between 0.9 and 1.1 for uniform liquid crystal orientation.

A conductive resin part electrically connects a ground line to a set bracket on a display panel.

Rear polarizing layers eliminate screen height differences while maintaining high light transmittance.

Replacing Si and Ti with copper in aluminum alloys boosts visible spectrum reflectance above 90% while reducing hillocking.

Gradient hybrid layers reduce polymer density near electrodes, allowing liquid crystal molecules to rotate freely and reflect light for higher brightness.

Anisotropic multiphasic particles switch optical states via magnetic field orientation.

Opening portions segment bus lines to isolate short-circuits, improving repairability while maintaining electrical reliability.

Heat treatment varies lower layer properties under initial spacer patterns, enabling precise size control without complex halftone or slit mask processes.

A liquid crystal display structure uses a dummy hole to expose the color filter beneath the pixel electrode.

Light-shielding patterns cover spacer projections in the viewing angle switch device, preventing light leakage and protecting confidential information.

Segmented liquid crystal blocking components isolate display sub-regions to maintain visual uniformity across large panels.

Local impedance differentiation in fan-out wires equalizes resistance to prevent signal distortion without increasing border width.

Patterned wiring and cover materials on a circuit substrate suppress disconnection and crosstalk in optical modules by distributing bending stress.

Passivation layer step height supports column spacers to prevent alignment layer damage and light leakage, maintaining aperture ratio.

Integrating cylindrical lenses with pixel islands projects light to create continuous viewing areas, reducing crosstalk and black area issues in 3D displays.

A display device integrates a dummy region containing repair lines and dummy patterns to restore deteriorated touch signals.

Reflector units between the quantum dot film and display panel redirect unabsorbed light back into the backlight module to enhance excitation efficiency.

A pixel unit array design uses alternating first and second pixel units with distinct electrode configurations to reduce color shift while maintaining high transmittance.

A reflective display uses a phase change material layer to modulate the refractive index of a textured metal film.

A curved display device incorporates a fourth color pixel area with a white filter at the edge portion to enhance luminance.

A long-pulse pumped optical parametric oscillator generates linearly-chirped pulses via intra-cavity dispersion and nonlinearity management.

A partition wall with a wider capping layer controls the surface contact angle to constrain alignment solution spreading.

A spacer reduces distance between floating and pixel electrodes in FES LCD panels, boosting capacitance coupling to fix insufficient voltage levels.

A resin layer on the second substrate absorbs impact energy during scribing to protect peripheral circuit wires from collision damage.

A nested lens substrate embeds a concave optical layer within an insulating film to optimize light inclination.