Non-Linear Optics TRIZ Cases

Optical devices on a flat display substrate refract light to form a curved image, resolving yield and cost issues from physical bending.

Stem and branch electrodes reduce texture in curved displays while maintaining transmittance and aperture ratio comparable to flat devices.

Auxiliary capacitors utilize storage line and drain electrode overlaps within common electrode openings to increase capacitance.

Blue LEDs excite green and red phosphors to create white light, resolving the contradiction between wide color spectrum and device complexity.

A display panel design uses a shared electrode extending between main and sub-regions to improve transmittance.

A liquid crystal display panel features a first substrate divided into reflective and transmissive portions to enable simultaneous front and rear image viewing.

Adding a neutral polar compound regulates particle polarity, reducing reverse-polarity particles and improving reflectance.

A tungsten light shielding film with a concave surface prevents base material warpage while improving light blocking.

A liquid crystal display device couples a common electrode to a conductive light shielding layer via a protection circuit.

Eight-domain pixel electrode pattern controls crystal molecule orientation to reduce color washout and improve viewing angles without MVA complexity.

Segmented sub-images combine via a lens array to create focused virtual images, resolving presbyopia viewing constraints.

Dynamic lighting on the background plate resolves contradictions between image clarity and spatial perception in outdoor environments.

A sealant curing device uses a light conversion layer to transform UV or IR beams for simultaneous photocuring and thermocuring.

Transparent conducting bar positioned below gate short-circuit bar balances static charges to prevent burning during LCD display manufacturing.

A spacer layer on an electronic panel controls external light reflection angles to minimize glare.

Segmented dielectric layers form distinct cell gaps per color pixel, reducing chromatic dispersion without external compensative films.

A polarizing plate alters optical polarization structures using specific light rays to address abnormal pixel bright spots on a display.

Accommodation grooves in substrates fix sub-display panels to align outer surfaces, eliminating visual height differences during splicing.

High-reflectivity front facing portions redirect light to the transmissive display portion while low-reflectivity boundary portions prevent leakage.

Adjusting shield electrode disposition density across distinct sub-pixel regions within an array substrate to manage lateral electric field shielding.

A liquid crystal display uses differential voltage adjustment across sub-pixel electrodes to control molecular tilt angles.

An insulating layer prevents haze effects from chemical reactions while a shared contact hole maintains aperture ratio.

A liquid crystal panel uses a high sheet resistance first electrode layer to control light transmittance across the display surface.

Segmented spacer system with sub-spacers maintains uniform cell gaps in high-definition displays.

Vertical light shielding parts prevent sub-pixel junction leakage, reducing L0 brightness by 19% and increasing contrast by 17%.

Light flux controlling members prevent cross-lens transmission between adjacent elements, resolving luminance unevenness in display devices.

A display panel uses black matrix light shielding and transmission portions with an electrode layer to deflect liquid crystals for brightness control.

A transflective pixel structure uses a contact opening in the transmittance region to connect electrodes.

A birefringent material layer divides light into shifted components to scatter optical interference patterns.

Segmented thermal control manages ring oscillator and filter temperatures independently, resolving heat interference that destabilizes free spectral range.

Blue backlight illumination converts through quantum rods to resolve RGB absorption losses, reducing energy consumption while improving color saturation.

An image sensor positioned behind a liquid crystal display panel captures front-facing images through the screen.

An antistatic member grounds charges and electric fields to prevent threshold voltage shifts that cause edge brightness and greenish tint issues.

Segmented support pins with adjustable coupling portions resolve luminance unevenness and shadow issues in display devices.

Relocating slits to the common electrode layer prevents domain lines in the light transmitting region, improving transmittance and image quality.

Conductive bridges route through apertures in the thin-film transistor layer, reducing inactive border area and increasing active display space.

A double-layer photo spacer structure combines a support spacer and a buffer spacer to maintain cell gap stability in liquid crystal displays.

Insulated shielding electrode relaxes lateral electric fields to improve visibility and light transmission.

Dual slits on pixel electrodes and dielectric layers orient liquid crystal molecules, eliminating substrate alignment precision issues that cause image residue.

Curved liquid crystal display devices reduce light leakage by up to 29% through alignment layers oriented parallel to the curvature direction.

Offsetting light sources and placing fixtures on the opposite side reduces substrate size while maintaining uniform illumination.

Multi-layer electrophoretic displays achieve high image stability and broad color gamut by independently controlling pigments across separate layers.

An uneven fluorescent film increases surface area to control efficacy drops in large current regions, maintaining backlight reliability.

Birefringence compensation layers mitigate light leakage caused by stress-induced birefringence in display glass.

A vehicle mirror display system integrates an electro-optic device and a transparent waveguide display to switch between reflective and transmissive states.

Linear patterns in the polarizing plate create air gaps that improve light transmittance, while a hydrophobic layer prevents material deposition in those gaps.