Static Indicating Devices TRIZ Cases

Dual driving channels enable display units to switch signal paths during component failure.

A display device control circuit divides frame periods into variable subframes to manage light emission timing.

Segmented gate driver units release pulses during intra-frame pauses, resolving the contradiction between touch detection frequency and frame rate.

Odd-field and even-field memory blocks store scan line data to control pixel level multiplexing without changing driving circuit architectures.

Segmenting the fan from the control unit resolves versatility and complexity trade-offs in display device controllers.

A signal controller generates sectional image signals to display stereoscopic images across varying viewer heights.

A current compensator calculates load weights from input image data to generate target currents for display panel driving.

Luminance adjustment circuitry compensates image data based on pixel location and gray level to correct brightness variations in display arrays.

Integrates touch function layer directly on polarizer to reduce OLED panel thickness.

Protruding spacers stabilize the substrate gap to prevent polar liquid overflow, reducing manufacturing complexity and costs.

A display control apparatus calculates equivalent backlight luminance using diffusion transmission parameters to generate compensation images.

A timing controller divides frame duration to output coordinate emission data, enabling touch detection via display pixels.

Automated detection device divides dark state images into areas to calculate L* and C* values for uniformity evaluation.

A display apparatus uses time-division multiplexing to route data signals through shared output lines via distribution transistors.

Segmenting pixels into multiple sub-pixels with shared storage capacitor wirings maintains high aperture ratio while improving viewing angle characteristics.

A pixel compensation circuit manages threshold voltage and power voltage drops to ensure uniform brightness in OLED displays.

An alternating layout of gate and data fan-out lines eliminates RC delay deviation caused by parasitic capacitance in narrow-bezel displays.

Rapidly switching a transparent LCD panel and backlight assembly enables per-pixel opacity control on a clear field.

Lateral electric fields drive electrophoretic elements between pixel and common electrodes, eliminating counter-substrate structures to improve transmittance.

A shift register unit synchronizes control signals to adjust OLED light emission duration.

A dual-panel liquid crystal display uses overlapping monochrome and color pixels with distinct areas to block light leakage from off-state color subpixels.

A pixel circuit uses an isolating transistor to decouple the data signal from the external power supply voltage.

A display device performs self-diagnosis by comparing output images against reference signals to identify content anomalies.

A data driving circuit uses a second latch module to detect most significant bit changes and control pre-charge operations for accurate voltage levels.

Distinct gate off voltages for red, green, and blue sub-pixels minimize leakage currents caused by varying driving properties over time.

A double gate TFT driving transistor in an OLED pixel circuit adjusts threshold voltage to stabilize luminance output.

A display panel pixel circuit shares data and bias adjustment signals on a single line to reduce wiring complexity.

A driving backplane electrode structure aligns orthographic projections to stabilize storage capacitor values across pixel circuits.

Micro control unit receives backlight data across two preset time periods to drive local dimming modules.

A touch detection device uses periodic analog front end resets to remove display noise while a controller performs data interpolation on non-continuous signals.

A fingerprint identification circuit detects signal levels on display source lines to identify finger veins without extra sensors.

Random scan timing detects deteriorated organic light-emitting elements via sensing voltages in low-bit sub-frames, preventing luminance drops.

A touch display panel uses coupling capacitance variation between sensing electrodes and a cathode to detect user input.

A see-through display device uses Brewster angle incidence to separate S-wave reflection from P-wave transmission for clear background visibility.

A display panel integrates light transmitting sections within the black matrix to enable rapid visual detection of circuit anomalies.

A display panel uses control circuits to partition pixel islands for independent refresh rate management.

A pixel circuit uses a dual gate structure with hold patterns to increase capacitance between intermediate nodes and storage lines.

A color shift compensation system adjusts red, green, and blue pixel values to maintain balanced light emission ratios.

Scan driver circuit increases buffer transistor gate-source voltage difference while minimizing capacitor charge and discharge power consumption.

An inorganic protective layer with low moisture permeability sits between organic partition walls and the light-emitting layer.

A 2-line addressing driving scheme reduces pulse current in LED backlight systems.

A source driving module uses a voltage selector to alternate between two gamma voltages for sub-pixel charging.

Segmenting the drive circuit into multiple modules distributes heat and reduces pin fracture risk in liquid crystal displays.

A switchable panel adjusts electrode voltages to form a parabolic potential surface that compensates for bonding mismatch.

Drive controller classifies image signals and selects processing algorithms based on gray level histograms to optimize display output.

Source driver monitors common electrode voltage fluctuations to switch inversion modes, preventing crosstalk in large LCD panels.

A liquid crystal panel driving circuit uses a switch unit to alternate data signal output orders across row cycles.

A compensation thin film transistor relocates to the non-emission area, reducing scan line load and parasitic capacitance.

The solution enhances light transmittance in the camera region without size limitations, ensuring even brightness and preventing parasitic capacitance, thus improving the display quality and camera functionality.

Layered inter-line connections allow laser short-circuiting of broken signal lines, maintaining high open-area percentage and low wiring resistance.