Non-Linear Optics TRIZ Cases

An elongated stripe-shaped connection terminal reduces light reflection in liquid crystal display panels.

A concave surface compensation pattern protrudes into common electrode apertures to modify the overcoating layer geometry.

A liquid crystal display device structures pixel electrodes before source and drain electrodes to prevent cell reactions.

Photo-curable resin fixes spacers in the alignment film, preventing base layer thermal damage and reducing processing time.

An optical compensation layer with a third alignment film anchors liquid crystal molecules to maintain linear polarization.

A transparent conductive film connects to a common electrode through a contact hole in a display device.

Dip-coating a planarizing layer fills underlying valleys, reducing light scattering and electrical shorts while lowering manufacturing costs.

Optical device reduces crosstalk by 43-52% through selective DC electrode removal, allowing compact integration without harmful electromagnetic fields.

A shield electrode between pixel electrodes prevents electric field interference, reducing light leakage and color non-uniformity.

Inclined surfaces on a backlight module blocking member reflect light toward the exit side, eliminating bright or dark lines at spliced lamp board seams.

Static electricity protecting units redirect charge to common voltage lines, preventing drive IC damage and boosting production yield.

A display device uses a light-shielding member to block emitted light from reaching the drive circuit.

A mold recess accommodates multiple flexible wiring substrates simultaneously to streamline assembly operations.

A liquid crystal display device fills a through-hole with resin to support a capacitor insulating film and light shielding layer on the TFT substrate.

Single-domain sub-pixels adjacent to main spacers increase light transmittance, preventing stripe defects caused by alignment film damage.

Recirculating helium manifolds create turbulent flow across segmented slabs, reducing thermal birefringence and depolarization for high-power laser systems.

A top conductive film forms a capacitor with the array substrate to distribute electrostatic charges in the peripheral region.

Ultrasonic conductive solder merges hermetic sealing and electrical interconnection, eliminating visible contacts and reducing processing costs.

A multi-layer spatial light modulator device controls phase and amplitude modulation through independent layer displacement.

Pre-formed cutting guide slots on transparent bases prevent cracks during laser processing, improving yield.

Bent tape segments redirect liquid flow away from frame joints, preventing foreign substance entry into the display device.

A display panel uses liquid crystal layers to control light polarization before quantum rods convert blue light into red and green colors.

Segmented MZM drivers overcome RF loss and voltage swing limits, enabling 4-level pulse-amplitude modulation for DWDM networks.

A liquid crystal display polarizer uses a reflective film to recycle backlight light through the panel.

Raised structures on array substrates constrain main spacer movement to protect orientation layers.

A Fresnel lens layer adjusts focal points in three dimensions via independent voltage control across partitioned regions.

Differentiated peripheral pixel structures reduce edge brightness inconsistency in non-rectangular displays by adjusting sub-pixel transmittance.

A reinforcement layer adjusts the neutral axis position within a flexible display device to transform thin film states during bending.

A display device driven by an electric field uses movable driving bodies within barrier rib openings to control light transmission.

Segmented auxiliary electrodes with insulation portions prevent metal elution while improving voltage stability and transmittance control.

A repairing protection pad on the common electrode isolates metal chippings during laser repair.

Segmenting pixels into red, green, blue, and white sub-pixels maintains high resolution while boosting white reflection rates by preventing color mixing.

Segmented barrier structures reinforce OLED display corners to prevent film layer wrinkles and delamination during bending.

A clad gate wiring structure protects low-resistance conductors from oxidation, preventing signal delays in large-scale liquid crystal displays.

Segmenting electrophoretic particles into nested microcapsules prevents settling and enables full-color display switching.

Defect resonance cavities in photonic crystal structures increase color saturation and light utilization efficiency, reducing fabrication complexity.

Segmented charge adjustment lines allow dynamic voltage difference control between sub-pixel electrodes to resolve fixed view angle limitations.

Solid electrolyte barriers prevent catalyst poisoning and hydrogen loss, extending device lifetime while maintaining high delta transmission.

A photovoltaic cell generates electrical power from incident signals to autonomously adjust attenuation levels in remote telecommunications networks.

A liquid crystal display panel uses a color resistance layer to connect silver lines and metal lines, increasing contact area for stable signal transmission.

Stacked common electrodes increase overlapping area for higher capacitance without expanding horizontal layout space in the display panel.

A pixel electrode with a main rod and branch portions stabilizes liquid crystal orientation.

A circular-polarizing layer over a linear polarizer converts light to ensure image visibility through polarized sunglasses.

Segmented short-ring circuits disperse static electricity in LCD panels, removing outer rings after edge grinding to eliminate electromagnetic interference.

Insulating a metal wire grid polarizing layer from pixel circuits reduces electric field interference, enhancing brightness control and contrast.

A liquid crystal display device incorporates a shielding layer between protection layers to reduce panel thickness.

An insulated passivation layer allows data lines to overlap pixel electrodes on one substrate, improving aperture ratio while preventing short circuits.

A color conversion panel integrates a low refractive index layer containing blue pigment to absorb external light and enhance display quality.

A curved dam structure on the array substrate directs alignment film ink away from bonding leads.