Non-Linear Optics TRIZ Cases

Segmented black light shielding frames prevent light leaking and color shifting from positional deviation while maintaining high aperture ratio.

Nested rubber frame and back plate structure with integrated connectors and blockers improves assembly efficiency and prevents deformation during disassembly.

Disconnected upper layers in diagonal sensing lines block moisture ingress while the lower layer maintains conductivity, preventing corrosion.

Silicon diffractive optical elements reduce absorption losses by replacing metallic subwavelength structures in liquid crystal on silicon devices.

A diffuser plate supporter uses a transparent support portion to maintain light efficiency while an opaque base secures the assembly.

Segmented test lines with insulating layers prevent short circuits when cutting large glass substrates into display panels.

A polarization rotator switches incoming light between orthogonal states at high frequency before passing through a polarizer to reduce intensity.

Groove-like organic passivation film absorbs excess sealant at corners to prevent protrusion into the display region.

Chamfered substrate edges route lead wirings through a common vertical connection, reducing frame area and wiring resistance.

Segmented electrodes balance TE and TM coupling efficiency, eliminating polarization-dependent losses while maintaining simple control architecture.

Imprinting with soft molds forms color filters, eliminating photolithographic steps and reducing fabrication costs.

Column spacers maintain vertical gap in liquid crystal displays, preventing substrate shift during touch operations.

A liquid crystal display panel uses segmented pixel groups with alternating data line connections to achieve uniform sub-pixel charging.

Adjusted grating boundaries compensate for Gouy phase shift to maintain phase matching and improve conversion efficiency.

Segmented electrode heights reduce squeeze-push behavior between liquid crystal molecules, lowering 3D crosstalk and improving stereoscopic display quality.

A liquid crystal display module integrates a light converting layer with fluorescent color blocks to transform incident wavelengths.

A liquid crystal polarization rotator adjusts focal length in an electro-optic zoom lens system for rapid state switching.

Reflection film on backlight substrate redirects absorbed light to improve brightness while maintaining pixel isolation.

A display panel manufacturing method corrodes exposed metal traces using concentrated acid to form insulating metal salt structures.

A backlight module employs a diffuser plate to redistribute light from mini-LEDs, resolving luminance non-uniformity without increasing manufacturing costs.

A laser beam output apparatus directs pulsed light through selectable optical paths to generate distinct wavelengths via non-linear crystals.

Asymmetric parallelogram sub-pixels and specific lenticular angles enable distinct viewpoint rendering while suppressing moiré patterns.

Side routing gaps in glass substrates conceal chip-on-film assemblies, resolving the conflict between borderless design and substrate shape.

A display panel ground wire connects to conductive silicon on the second border, discharging static electricity while preventing light leakage.

Segmented rectangular repair lines bypass wiring defects to prevent signal delay and maintain image quality.

Segmented slit portions in the common electrode weaken edge electric field intensity, improving lateral visibility and transmittance by up to 3.1%.

Removing end stoppers and adding an opening bezel reduces stress concentration on glass substrates during shock tests.

A polarization conversion element rotates light polarization using liquid crystal alignment controlled by voltage gradients.

Integrating sealing resin with the display edge eliminates redundant frames, reducing device weight and light leakage.

Segmenting the back cover into base, connecting, and curled coupling portions enhances rigidity while simplifying assembly.

Distinct surface chemistries via free radical and dispersion polymerization resolve charge competition between mixed pigment types, improving color performance.

A side-lit LED backlight module uses Fresnel lenses and a reflection plate to direct light without a light guide plate.

A substrate with differentiated wetting tension directs electrolyte onto electrodes, enabling precise pixel formation without pre-treatment.

Separate contact holes discharge static electricity to prevent dielectric film breakdown and improve manufacturing yield.

Intersecting main electrodes in hexagonal sub-pixels define independent domains, reducing color shift without lowering overall transmittance.

Varying passivation film thickness stabilizes the electric field, reducing power dissipation and minimizing flicker in IPS-mode displays.

A three-mask process fabricates thin film transistor substrates using double conductive layers for gate and data lines.

A dielectric member on sub-pixel connections stabilizes liquid crystal orientation, preventing misalignment and restoring alignment after surface pressure.

Electrowetting-based fluid interface control replaces mechanical motion to reduce device volume while maintaining precise light modulation.

Alternating sub-pixel connections to segmented data lines compensate for alignment inaccuracies, preventing bright and dark lines in TFT-LCD panels.

A liquid crystal display subpixel unit uses an electrically floating thin film transistor gate to share a single data line for gray scale voltage supply.

A display panel design reduces DBS electrode height relative to the pixel electrode to compress the electric field range.

A dimmable panel uses segmented strip electrodes to control liquid crystal scattering and switch between peep-proof and shared viewing states.

Liquid crystal display panel design removes inorganic insulating film at the inlet to prevent nibble invasion, reducing bright point defects.

An inclined bottom surface in the rubber frame slot enables dynamic self-adjustment during thermal expansion, preventing panel separation and display faults.

A peeping prevention structure uses charged light-absorbing particles within transparent columnar cavities to control viewing angles via electric fields.

Gradient hollow-carved units in the ink layer reduce reflectance near power inlets to correct IR drop-induced brightness unevenness.

A light-shielding layer covers conductive line surfaces in polymer dispersed liquid crystal displays to block stray optical reflections.