Static Indicating Devices TRIZ Cases

Replacing Boolean logic with pass gates reduces circuit area, enabling compact pixel driver integration under micro-LEDs without increasing display size.

A storage capacitor forms between an anode and an adjacent data line to distribute electrical charge across the pixel circuit.

Recessed colloid structures guide LED light to eliminate optical films, reducing backlight module thickness and cost while maintaining uniform illumination.

Placing the thermistor outside the FET heat zone prevents thermal interference, ensuring stable luminance across the display.

A system extracts audiovisual content from graphics memory for selective streaming.

Level shift circuits transmit mode and mux signals to pixel blocks, enabling two-dimensional viewing angle control while reducing power consumption.

Segmented GOA circuit groups connected to individual test lines identify faulty stages, enabling virtual region replacement to boost yield rates.

A display device uses a driving voltage line between initialization and data lines to reduce parasitic capacitance.

Rotating shafts reposition rigid display screens on opposite housing surfaces to hide physical borders, extending the visual area without flexible panels.

A light-emitting device adjusts operation voltage across a driving transistor to control current flow.

A demultiplexer driver circuit uses mux modules with two thin film transistors to control data signal polarity across sub-pixel rows.

A scan driving circuit uses control circuits to switch scan lines, enabling independent area scanning.

White sub-pixels separate primary color regions to stop inkjet misalignment discoloration.

Segmented edge and corner drivers reduce bezel size while expanding the visible display area.

Multi-layer wiring routes through gate driving circuits to minimize border width and improve screen ratio in notch edge displays.

Integrating the gate driver circuit into the active area reduces signal delay and improves luminance uniformity.

A display driving circuit outputs gate signals with synchronized rising edge timings across multiple periods.

Mounting system boards within the pedestal base reduces overall thickness while maintaining structural support.

A pixel driving circuit maintains gate electrode potential during light emission periods to stabilize display output.

Converging bump extension lines compensate for dimensional variations during chip bonding on flexible displays.

A gate driver adjusts direct current voltage levels to reduce power consumption in display devices.

A display device adjusts data signal supply periods based on pixel distance from drivers to ensure uniform charging across the panel.

Textured diffusers and spectral filters integrate into the optical path to eliminate directional sensitivity errors during power-up.

A polygonal step difference compensation pattern offsets structural asymmetry in the pixel electrode layer of an organic light emitting diode display.

Vertical conductive layer arrangement reduces parasitic capacitance and crosstalk effects, ensuring stable pixel electrode voltage at high resolutions.

Segmented organic functional layers adjust microcavity lengths to minimize off-angle color cast and brightness attenuation.

A sensing circuit measures LED voltage to adjust drive currents, compensating for aging-induced color non-uniformity across the display.

A pixel unit driving circuit uses four transistors and two capacitors to manage charging, compensation, and light emission phases.

A wireless transceiver converts display signals to RF for seamless data transfer.

A common voltage output unit controls the signal applied to liquid crystal display panels.

A light transmission guide layer fills gaps between adjacent liquid crystal panels to ensure uniform luminance across the assembled display.

A display partition features a light-shielding end portion and a translucent end portion between sub-pixels.

A pixel circuit merges two sub-pixels to share scanning and data lines, reducing component count.

A gate driver circuit uses extraction and segmentation to reduce bezel area in organic light-emitting displays.

Merging color beams reduces optical losses in LCoS displays, while feedback loops adjust transmittance to fix uneven illumination.

Variable data voltage ranges adapt to driving transistor threshold shifts, ensuring uniform luminance and stable gradation across the display.

Groove paths on the planarization layer guide liquid crystal diffusion via capillary action, countering gravity-induced Mura in vertical displays.

Segmenting a single emissive display into independently controllable regions eliminates visual search delays caused by sub-optimal backup locations.

A display driving method segments pixel groups to map grayscale values to specific duty cycles and data voltages.

A display panel design uses a compensation transistor to stabilize drive gate potential.

A micro light-emitting diode panel overlapped with a reflective display surface provides auxiliary illumination for the liquid crystal layer.

A shift register circuit uses buffer discharging and holding devices to enable dual scanning functionality with minimal control signals.

Asymmetric odd-even wiring reduces bezel width by halving single-side signal wires while maintaining full scanning sub-circuit driving capability.

A liquid crystal display method adjusts pixel grayscale values by flipping crystals at specific positions to reach target brightness levels.

Black stripes merge with thin film transistor layers to prevent crosstalk between left-eye and right-eye images in the display.

Segmented crack detection lines with switches identify damage locations without increasing circuit complexity.

Segmenting common electrodes lowers interconnect resistance and parasitic capacitance, enabling higher drive frequencies for large-area touch sensors.

A display panel driving device uses channel circuits to supply data voltages for in situ testing.

Imprinting reduces mask steps and substrate pollution by using organic film depressions as etching masks.

A gate driving circuit reduces pulse signal input ends by connecting multiple gate scanning lines to shared timing control signals.