Non-Linear Optics TRIZ Cases

A protection film covers color resist block edges to prevent ion diffusion into the liquid crystal layer.

Segmented back and lamp panels with alternating flat and curved zones preserve light source distance to prevent short-circuiting.

Light-scattering members on the substrate reflect and scatter light between elements, resolving non-uniform luminescence in direct-lit displays.

Opposite chirality in the switchable barrier resolves resolution loss and poor viewing angles found in fixed barrier displays.

Dual retardation layers stabilize optical characteristics in liquid-crystal displays.

A liquid crystal display device switches between wide and narrow viewing angle modes using segmented electrode assemblies.

A detection line senses voltage variations at the common electrode through electromagnetic coupling without direct electrical connection.

Slits in the non-light transmitting layer extend the propagation path for electric charges, reducing unintended color changes caused by wiring coupling.

A liquid crystal display device uses a second common electrode positioned above data lines to enhance light transmittance.

A polycarbonate resin composition with fluorene side chains and spirocyclic structures improves transparency and bending resistance.

Segmented light control structures with varying transmission proportions resolve uneven brightness trade-offs in Mini LED display devices.

A liquid crystal device wall portion manages lateral electric fields through a multi-layered pixel electrode structure.

A substrate holds transistors and storage capacitors in a vertical stack to maximize pixel aperture.

Corner and edge LED assemblies illuminate blind spots, reducing bezel width while maintaining uniform brightness.

A liquid crystal module light-shielding belt uses an elastic element to maintain position between the display panel and support structure.

Decoupling high-frequency dithering from large-angle steering reduces power consumption and maintains beam focus.

Low reflective portions at the carrier edge reduce light leakage and improve uniformity by absorbing stray photons.

A birefringent crystal folds acoustic and optical beams through multiple reflections to extend interaction length.

A flat layer between metal layers ensures uniform photoresist thickness, resolving non-uniformity from unflat insulating layers to reduce fanout pitch.

A segmented shield electrode structure with an inorganic barrier prevents water ingress into organic insulating films.

A protection film with openings covers resin light shielding layers outside the display area to ensure seal material adhesiveness.

Segment difference padding layer with through holes eliminates rubbing mura and improves adhesive strength in liquid crystal display sealing regions.

Segmented anodes create perpendicular extraction paths to release trapped energy without polarizers.

Patterned electrodes with varying transverse edge positions create uniform acoustic intensity in acousto-optic devices.

Protrusions on comb electrode branches strengthen the electric field to accelerate liquid crystal switching speed.

A display substrate with hetero-potential electrodes generates a specific electric field to orient blue phase liquid crystals.

Auxiliary electrode units connect to common lines in liquid crystal displays, lowering electrical resistance and preventing common voltage distortion.

Adjustable optical elements correct disordered light signals through interference optimization, eliminating time-consuming transmission matrix computations.

A lighting device uses an angle-selective light reflecting unit to direct emitted light toward a display panel.

Asymmetric conductive structures equalize lateral coupling capacitances in array substrates to maintain uniform pixel brightness.

Segmented intrinsic regions reduce absorption losses and leakage currents while maintaining high bandwidth for chip-scale optical interconnections.

Air layer between display panel and color conversion parts increases light output efficiency while reducing manufacturing complexity.

A display panel sealing element merges sealant and color resist segments to support substrates while enabling a narrow frame design.

Asymmetric pixel electrode neck portions compensate for overlay discrepancies to prevent dim block in zigzag driving liquid crystal displays.

A display panel integrates a retardation element and polarizer to control light transmission for selective image visibility.

PTC thermistors link common electrodes to gate lines, reducing wiring resistance and power consumption in large-scale LCD panels.

Protrusions on the first transparent conductive layer enhance the horizontal electric field component, increasing light transmittance in ADS display panels.

A liquid crystal display electrode pattern uses specific stem angles and branch parts to orient molecules via fringe fields.

A doubly resonant optical parametric oscillator uses a lithium niobate crystal with asymmetric polarization lines to enable continuous wavelength tuning.

A backlight device uses a reflector to push light source substrates against the bottom chassis, preventing gaps that reduce LED luminous efficiency.

Segmenting shielding between data lines and black matrices reduces light leakage while increasing the aperture ratio in LCD panels.

A variable reflection combiner adjusts optical zones to merge head-up and head-down display functions into a single integrated screen.

A planarization layer reduces lateral electric field strength to minimize liquid crystal phase deviations and improve refractive effect.

Fringe field switching transflective LCDs use distinct slit inclination angles in reflective and transmissive pixel electrode areas to modulate liquid crystal alignment.

Segmented pixel electrodes with varying branch widths control liquid crystal orientation to reduce transmittance differences and improve side visibility.

Apertured reflective layers direct emission light while blocking unwanted paths, resolving the trade-off between light use efficiency and color purity.

Protrusions on the top substrate provide a rough surface that bonds the light shielding layer, preventing peeling and maintaining light shielding efficiency.

A guide pin with matched reflectivity supports an optical sheet to eliminate dark lines from fixing part reflectivity differences.

A curved electro-optic modulator uses a folded waveguide structure to enhance phase difference and modulation efficiency.

A display apparatus design positions a protective layer and spacers to maintain substrate distance while routing signal lines through contact holes.