Static Indicating Devices TRIZ Cases

Opposite phase enable and gate signals drive a pixel circuit that compensates threshold voltage and carrier mobility while reducing afterimages.

Applying preliminary aging treatment forms charge traps that suppress leakage, preventing image flicker at low driving frequencies.

Synchronous touch scan signals drive electrodes and pixel circuits simultaneously, eliminating parasitic capacitance influence on measurement precision.

Charging gate lines during vertical blanking stabilizes output loads and eliminates audible noise from capacitor vibrations.

Switching transistors control reset signals to stop GOA interference during SPI communication, improving optical compensation debugging speed.

Segmenting voltage control via an intermediate node reduces stress on transistors in OLED display shift registers.

A multi-module display apparatus calculates local dimming values per module to adjust brightness levels across the screen.

A shift register uses a stabilization node control portion to maintain an on level for less than half the operation period.

A signal driving circuit uses PMOS shift registers controlled by two clock signals to output sequential pulses.

Grooves in the packaging metal layer hold drive circuits to reduce frame width without compromising reliability.

Segmenting drive functions into preliminary and amplification circuits corrects voltage errors from parasitic capacitances while reducing power consumption.

A display panel design uses non-uniform wiring cross-sectional areas to minimize luminance deviations among display elements.

Extending the first pixel electrode beyond the metal layer improves optical transmittance while protecting emission elements from damage.

A display device compensates grayscale data via voltage polarity changes between frames.

Integrating a non-linear element into the drive circuit simplifies configuration and reduces area while maintaining control reliability.

Dummy wirings extend along region contours to reduce brightness fluctuations caused by parasitic capacitance between video signal lines and pixel electrodes.

A compressed DeMura table undergoes decompression and upsampling to generate a reconstructed compensation table for display panels.

A liquid crystal display device switches between high-speed and high-transmittance modes using distinct voltage levels applied to pixel electrodes.

A gate driving circuit transmits preset voltages through internal transmission paths within non-operative stages to reduce external signal line density.

Integrating gamma voltage generation into the data source integrated circuit eliminates separate hardware, reducing production costs and resource occupation.

A pixel driving circuit uses distinct capacitance values per subpixel to tailor driving currents under a shared voltage signal.

A fingerprint sensing unit generates luminance data from reflected light to drive a timing control unit that produces compensation signals for the recognition module.

A holographic display device uses a zigzag pixel arrangement with segmented color filters to modulate light amplitude and phase for high-resolution output.

Pixel compensation adjusts drive transistor currents using historical feature values to maintain uniform display output.

A display device uses capacitive coupling between two transparent electrodes to invert voltage polarity and prevent liquid crystal persistence.

Driving controller adjusts second clock pulses during vertical blank to prevent luminance changes from unsynchronized signals.

A processing system segments display content into node information units to generate target images for cross-device transmission.

Varied gate insulating layer thicknesses reduce parasitic capacitance in sampling transistors, improving initial luminance uniformity and reliability.

Multi-layer fan-out traces with distinct angles minimize parasitic capacitance and improve sealant curing in high-resolution displays.

A metal signal line in the crack stop area blocks cracks from entering the display area while connecting to a monitoring circuit for timely detection.

A mobile terminal controller provides visual and haptic feedback during fingerprint scanning to guide user input.

Vertical circuit stacking moves peripheral demultiplexers into the active area, resolving bezel width constraints without increasing wiring complexity.

A display touch driver applies periodic scanning signals to electrode groups to maintain uniform gate-source voltage across the panel.

Separate conductive layers in the non-display area connect pads to common electrodes, merging display driving and touch sensing to reduce development time.

A display device uses a control circuit to manage power source voltages for driving transistors.

Offset upper and lower layer main wires in a liquid crystal display panel maintain equal impedance while reducing light leakage around the display area.

A reflection preventing layer absorbs stray light between the transflector and polymer layer to block unwanted reflections.

Barrel pixel array corrects lens-induced image distortion in VR displays, eliminating power-intensive computational algorithms.

A pixel circuit manages driving voltage stability through dedicated compensation sub-circuits.

Merging blue sub-pixels onto one drive circuit reduces manufacturing complexity while maintaining image quality through average luminance control.

A display substrate organizes pixel groups into sub-pixel clusters to maintain high resolution.

A pixel circuit wiring layout connects adjacent anode electrodes to transistors in AMOLED displays.

A touch liquid crystal display device integrates common electrodes as dual-purpose sensing elements within a two-dimensional array.

A movable probe platform repositions test probes to contact panel pads, eliminating the need for separate dedicated devices per panel type.

Segmented pixel circuits with dedicated signal lines reduce wiring complexity in high-resolution OLED displays.

A barrier electrode with sub-electrodes featuring projection portions orients liquid crystal molecules for stereoscopic display barriers.

A switching device detects input operations and drives operating systems to display cursor position marking effects on connected monitors.

A logic circuit detects voltage drops on power supply lines and activates a charge transport path to discharge the display panel, preventing burn-in.

A panel driving circuit discharges residual pixel charges during a power-off delay to prevent image sticking in organic light emitting displays.