Corner cutouts on rectangular color filters prevent overlap from misalignment, maintaining liquid crystal layer thickness.
Dispersed spacers in the adhesive layer prevent uneven gaps and Newton's rings, ensuring consistent thickness for high-contrast thin liquid-crystal displays.
Segmented cathode layers prevent edge curling and thermal damage during laser patterning of light-transmitting areas.
Optimized light-shielding pattern thickness and interval reduce Moire Artifact interference between the film and display panel pixels.
Divided common electrodes overlap data lines at opening portions to minimize light leakage and color wash-out while improving ambient contrast ratio.
Segmented terminal area structure integrates testing elements within non-rectangular liquid crystal display devices.
A reflective plate with a photoluminescent layer emits light to improve brightness uniformity.
A liquid crystal display structure uses a gas discharge passage to prevent inorganic insulating layers from floating or peeling off organic color filters.
A controller applies a ramped voltage profile to bus bars of an electrochromic device.
A liquid crystal display device uses a polymer polarizing film to maintain precise spacing between optical layers.
A transparent conductive film extends into a recess portion within insulating layers to form a protective barrier.
Configured double-layer biaxial compensation films reduce dark-state light leakage and improve contrast at wide viewing angles.
A liquid crystal display replaces polarizers and color filters with wavelength conversion layers and optical shutters containing dichromatic dye.
Layered wiring separates common potential lines from other conductors in the non-display area, preventing ionic impurity intrusion into the display region.
Bridge lines reroute common voltage to repair short defects in flat display panels without creating new cross-short problems.
Edge-wrapped flex circuits eliminate bezels by relocating electrical interconnects from through-glass vias to tile edges, enabling seamless tiling.
Liquid crystal element groups modulate incident light phase to achieve uniform modulation across wide wavelength ranges.
A pixel unit design segments the display area into a central color portion and a peripheral light transmission zone.
Four-domain liquid crystal structures with distinct azimuth and pretilt configurations eliminate color shift and reduce light leakage along slant directions.
Asymmetric wire loops disperse vibration energy to maintain connection strength despite compact housing sizes.
A display panel uses a protrusion to control second adhesive spread between the rim portion and housed member.
Spaced stopper layers on a thin film transistor substrate constrain column spacers to prevent light leakage without reducing the aperture ratio.
A substrate coloring portion absorbs secondary light to prevent re-entry into wavelength conversion sheets.
A liquid crystal display apparatus integrates quantum rods within sub-pixel regions to function as both polarizers and color filters.
Curved light bars redirect edge illumination to eliminate vignetting while thermal materials prevent overheating.
A liquid crystal optical element uses a relief surface and diffraction grating to switch between electro-inactive and electro-active states.
Dummy sealant patterns condition the dispenser to prevent coagulation and disconnection, ensuring uniform liquid crystal layer integrity.
A display device positions spacers on an insulating film to maintain a consistent gap between substrates.
Adjusting a movable superstrate resolves velocity mismatch between RF and optical signals, enabling high bandwidth operation across multiple wavelengths.
A liquid crystal display panel structures sub-units with equal color and highlight sub-pixels to increase transmittance.
A transreflective liquid crystal display adjusts the white subpixel reflective area to balance luminance and chrominance across modes.
A tunable Fabry-Perot etalon filter uses a voltage-dependent dielectric to select narrow spectral lines without moving parts.
Narrow slits in the folding area allow flexibility while the shrink-wrapped cover maintains impact resistance against external forces.
Adjacent contact holes in the thin film transistor region optimize aperture ratio.
Convex substrate sections modify electric field distribution to stabilize liquid crystal molecule tilt direction.
Segmented gate and common conductors optimize transmittance and conductivity while resolving trade-offs in FFS liquid crystal displays.
A recess portion with a specific bank shape supports the edge end of an alignment film on a liquid crystal display substrate.
Parallel dummy units take over when primary elements fail, preventing dark lights and brightness loss in Mini-LED displays.
Slanted zigzag slit patterns on a common electrode position singular points at groove locations to reduce afterimages and spots in vertical alignment displays.
An anisotropic optical film with controlled surface roughness and refractive index differences scatters light to improve visual clarity.
Semicircular waveguides achieve quasi-phase matching without electric fields, simplifying manufacturing and reducing device complexity.
Relocating mini-LEDs to the sealant's lower surface eliminates height differences and black shadows at spliced regions.
A micro lens array projects pixel light beams through apertures to expand the optical depth of field.
Transparent protrusions on the array substrate generate vertical electric fields in transflective blue-phase liquid crystal displays.
Asymmetric pixel electrode positioning suppresses oblique flickers during low-frequency transmissive driving by optimizing liquid crystal domain alignment.
Spaced metal lines on electrode layers facilitate uniform electric current distribution across electrochromic devices.
A light absorbing layer absorbs yellow-green wavelengths between green and red ranges, resolving color mixing issues while maintaining luminance.
Varying slit lengths in the pixel electrode control liquid crystal tilt to resolve brightness uniformity issues across different viewing angles.
A phased array acousto-optic modulator diverts laser intensity noise to a first order diffracted beam using an RF driver.
A light adjusting layer in the peripheral display area absorbs yellow light or emits blue light to correct optical properties.