Static Indicating Devices TRIZ Cases

Parallel sensing devices share a switch transistor to reduce component size, resolving the trade-off between aperture ratio and sensor signal magnitude.

A pixel circuit accumulates electrical charge in a capacitor element to supply stable voltage to a driver element.

A gate driver control circuit adjusts timing signals via multiplexers to modify row-scanning sequences.

A mixed orientation semiconductor light-emitting diode configuration uses distinct horizontal and vertical component types connected by a specific three-wiring structure.

A control driver processes image frames to determine selective activation intervals for LED arrays in an automotive lighting unit.

Overlapping signal wirings with driver transistor electrodes reduces the non-display bezel area while maintaining electrical conductivity.

A switching power supply circuit regulates output voltage using a maximum duty controller that adjusts transistor duty cycles based on feedback signals.

A pixel circuit separates threshold voltage sensing from data writing using multiple capacitors and switches to secure sufficient sampling time.

A gate driver uses common control nodes to manage scan signals through individual circuits.

A gamma adjustment circuit processes voltage signals through decoders and an amplifier to expand the adjustment range.

A timing controller synchronizes display drive and proximity sensing operations using vertical sync indicators to maintain consistent sensing frame rates.

A shielding layer hides conductive lines on the driving substrate, resolving the trade-off between electrical connectivity and display resolution.

A shift register circuit manages pull-up node voltage via a compensation sub-circuit, reducing dynamic image smear and improving motion picture response time.

Segmented pixel electrodes apply voltage across the liquid crystal layer, resolving high required voltage while maintaining aperture ratio.

A hard coating layer uses oligomers and cross-linkers to protect flexible display devices.

A liquid crystal display device forms a storage capacitor in a layer below the pixel electrode with a shield layer interposed between them.

Metallic nano-particle layers replace color filters to boost reflectivity and brightness in flexible electrophoretic displays.

A measurement circuit calculates electron mobility and threshold values for pixel driving transistors to generate corrected gradation voltages.

Separate chiplet column drivers control independent pixel groups to eliminate flicker and improve image quality in passive-matrix displays.

Alternating data lines across divided active areas minimizes luminance deviations between opposing screen sections controlled by separate drivers.

Inter-row conductive paths equalize voltages to minimize crosstalk and optical artifacts while facilitating faster VCOM recovery for improved display quality.

A liquid crystal device integrates photosensors with pixel electrodes to enable touch detection functionality.

Distinct second pixel protrusions at the display edge reduce non-pattern area visibility and suppress image discontinuity in tiled LED displays.

Segmented dopant stacks and wavelength converting layers stabilize white color temperature across gray levels while improving luminance.

Varied particle charge intensities enable four color states without filters, restoring white state brightness lost in conventional electrophoretic displays.

Vertical wire lapping through substrate holes shares conductive paths across planes, effectively narrowing the bezel region width.

A display device measures current differences across separate power supply lines to dynamically adjust gate voltages for precise panel driving.

An auxiliary wiring connects spaced display regions to ensure uniform driving voltage across pixels.

A dual-gate thin film transistor structure reduces hysteresis in organic light-emitting diode displays.

A self-aligned coating layer containing intramolecular hydroxyl groups enhances the physical bond between an encapsulation substrate and glass frit.

A shift register uses dual-phase auxiliary signals to control pull-down nodes, suppressing output noise through precise voltage management.

Separate reference voltage lines for odd and even pixel rows eliminate IR deviation and brightness inconsistency.

Pre-light emission bias stages adjust transistor characteristics to eliminate image smearing during low-frequency display switching.

A power supply circuit trims output voltages using dedicated generators and sign determining circuits to stabilize display performance.

Grayscale voltage generator uses non-monotonic reflection ratios to reduce response time while maintaining low power consumption.

A third electrode outside the display area traps positive ions, preventing black stains from degrading image quality.

Moving GOA unit groups inside the display area reduces bezel width to 1.152 micrometers, avoiding RC loading issues that widen traditional bezels.

Segmented backlight regions adjust brightness via local dimming to improve black visibility in VA LCD panels while reducing power consumption.

Sequential detection of OLED groups corrects aging effects to maintain brightness uniformity.

A display component uses storage capacitors and inter-transmission switching elements to move data between sub-pixel units within a single frame period.

A dummy pattern positioned between signal and non-signal areas intercepts static charge, preventing damage to transistors at the active area boundary.

Multiple DACs and switches in the channel circuit charge parallel signal paths, overcoming parasitic capacitance limits on operation frequency.

Tilt portions of lead-out lines suppress parasitic capacitance in multilayer liquid crystal display wiring structures.

Altering spatiotemporal dithering phases prevents voltage and charge imbalances that cause image artifacts in LCD displays.

OLED 3D display system eliminates black frame intervals through synchronized shutter control, boosting brightness and cutting power consumption.

A segmented Micro LED display panel uses independent scan start signal terminals to drive pixel regions simultaneously.

A display data driver adjusts bias current magnitude based on image pattern information to optimize power usage.

Switch control circuit redirects scan signals to pixel rows, resolving backward scanning initialization errors.

External memory connected to timing controller and power chip eliminates non-volatile memory in the power chip, reducing PCB complexity and packaging test time.

A liquid crystal display driving circuit uses separate clock signals to control primary and secondary scanning lines independently.