A pixel electrode trunk region accommodates the data line to reduce opaque areas in the array substrate.
Column spacers at crossing points adjust drain line width to prevent light leakage while narrowing scanning lines to reduce parasitic capacitance.
Multi-layer heat dissipation members with partition walls manage thermal loads while shielding OLED panels from water and oxygen ingress.
Bent data lines paired with auxiliary capacitor extensions reduce coupling capacitance variations while maintaining high aperture ratio.
Independent arm biasing compensates for fabrication errors that cause phase modulation imbalance and undesirable chirp in the output.
A color changing layer switches between transparent and opaque states to route light for sensing or display within a single panel region.
Integrated guide panel ribs restrict back cover movement, eliminating screws to simplify assembly and lower manufacturing costs.
A display panel uses segmented pixels with varying refractive indices to guide light from edge sources across the substrate.
A display device back cover uses sliding protrusions and adhesive bonding to connect the guide panel without mechanical fasteners.
Slit in segmented conductive elastic sheet isolates bending stress, securing electrical connection to metal frame without peeling the inner portion.
Extending black matrix side edges beyond glass substrates prevents light leakage from thin bezel display panel sides.
A retardation layer with specific in-plane phase differences compensates optical phase shifts at liquid crystal domain boundaries.
Dispersion-controlled nonlinear synthesis overcomes narrow spectral bandwidth limits in short-duration pulse shaping.
Preliminary fabrication and diffusion barriers prevent lithium loss and morphology changes when strengthening glass substrates with electrochromic devices.
Curved color conversion pixels resolve low front luminance and poor uniformity by directing light more effectively toward the viewer.
Optical compensation layers offset phase retardation in a liquid crystal display panel, reducing light leakage and color cast at side viewing angles.
Curved spacer geometry eliminates step discontinuities to resolve orientation treatment non-uniformity and improve optical contrast.
A bipolar junction transistor optical modulator uses segmented base-emitter and base-collector junctions for high-speed carrier sweeping.
Shield electrodes reduce capacitive coupling between data lines and pixel electrodes, minimizing voltage shifts and crosstalk in electro-optic displays.
A flexible array substrate segments pixels into island areas separated by elastic packaging parts containing light reflective material bodies.
Concavity-located main spacer stabilizes cell gap, preventing alignment film damage and light leakage under external pressure.
Rear-facing raised portions and enclosure recesses fix the liquid crystal display module, eliminating front-side screws that expand bezel width.
A display panel uses a segmented capacitor structure with a specific capacitance ratio to enhance transmittance uniformity.
Embedding photosensitive transistors between color resist blocks reduces the optical path length, preventing signal weakening from multiple film layers.
Merging light-shielding and color filter layers reduces structural complexity while preventing oblique color mixture in liquid crystal displays.
A display substrate integrates a vertical light shielding layer between pixel and common electrodes to block stray light.
Differently sized capacitor electrodes in spacer regions unify feed-through voltages while preserving aperture ratio and brightness.
A liquid crystal display panel uses substrate protrusions to electrically connect conductive layers upon compression for charge neutralization.
A removable resin frame fitted into a metallic back case opening supports the sub liquid crystal panel to maintain flatness and prevent direct contact.
Grooves in the photoresist layer capture Au balls to block light leakage, resolving narrow bezel display unevenness without high-precision dispensing.
A refractive layer with optical lenses redirects light away from opaque structures, increasing brightness and power efficiency in liquid crystal displays.
An asymmetric pixel electrode structure reduces fringe field effects at edges, improving viewing angles without complicating fabrication.
A touch display panel reuses the first common electrode as a touch electrode to enhance sensitivity.
A rubbing roller assembly integrates vacuum suction and a combing unit to maintain cloth alignment.
Protrusions on the partition member bottom ensure sufficient voltage application while preventing particle obstruction during display operation.
Segmenting touch electrodes into blocks with dedicated block lines reduces the number of required touch lines and driving circuits.
A sealing layer covers the alignment film extending outside the sealant to prevent hydrolysis.
Segmented metal patterns in LCD bonding pads connect via contact holes to create an electrostatic shield that prevents static damage during manufacturing.
A PDLC film structure uses segmented transparent electrodes and thin film transistors to generate lateral electric fields.
A liquid crystal panel compensation structure uses biaxial and uniaxial films to correct optical phase differences.
A liquid crystal panel shifts column-direction light-shielding sections opposite to spacer positions.
A liquid crystal display backlight module emits a multi-peak spectrum to drive color filters, resolving the trade-off between high NTSC ratio and low luminance.
Segmented reflectors reduce optical distance in the backlight unit, resolving thickness constraints while maintaining luminance uniformity.
Grooves in the planarization layer of a curved screen control stress concentration during bending, preventing irregular bumps that cause light leakage.
A switchable light-collimating film uses bistable electrophoretic fluids to narrow viewing angles without continuous power.
Divided pixel electrodes and varied alignment protrusions optimize liquid crystal orientation, resolving viewing angle deviations in oblique directions.
A switchable electro-optic element alters transmittance to mask sensors while preserving optical clarity.
Asymmetric supporting member dimensions disrupt periodic alignment between the shutter and display panel, eliminating Moiré interference patterns.
A display panel design with distinct optical areas featuring common electrode holes and specific signal lines for light transmission.
Slits in pixel electrodes block extra electrical fields from scan lines, reducing light leakage and improving contrast ratio.