Static Indicating Devices TRIZ Cases

A pixel matrix with independent static and dynamic memory stores graphic data in SRAM while processing video streams.

A display backlight module calculates intensity using a pre-computed diffusion weight lookup table to determine localized brightness levels.

A tempered glass cover lens integrates touch-sensing electrodes directly onto its substrate to provide combined protection and input detection.

A QRD-based display device uses staggered gate lines to activate four sub-pixels with a single data line.

A modified pixel structure merges capacitor plates with data lines to reduce mask counts in organic light emitting diode manufacturing.

Calculating threshold voltage from multiple current values during mobility sensing shortens compensation time and reduces luminance non-uniformity.

Interposing a silicon transistor between an oxide switch and a drive gate isolates the circuit from threshold voltage drift, maintaining luminance uniformity.

A processing unit stores and updates correction factors for AMOLED sub-pixels based on grey level and temperature data.

Pre-charging data lines with black pixel data ensures uniform luminance across green cells, resolving uneven brightness in super pixel gray patterns.

Power management circuit supplies compensating high-potential gate voltage to drive display panel subpixels.

A segmented switching TFT structure with multiple channel regions improves on/off performance in organic light emitting diode displays.

Partitioning the common electrode layer into independent self-capacitance electrodes enables in-cell touch sensing without adding new manufacturing layers.

Switching component manages data signal conduction to reduce load current in display driving structures.

Dummy pixels drive defective emission pixels through repair lines, reducing bright spot visibility and improving manufacturing yield.

A transparent display device uses segmented transmissive areas to transmit light while maintaining pixel functionality.

A pixel circuit uses a compensation circuit to stabilize gate voltage for efficient light emission.

A display panel driving method calculates average gray-scale values to adjust pixel voltages across sub-regions.

Distinct gate distances in silicon and oxide semiconductor transistors resolve layout complexity while increasing pixel density.

A common voltage control circuit adjusts the electrode potential based on ambient temperature signals to minimize flicker in display panels.

Segmented GOA circuit units raise control end voltage signals to multiple high levels, resolving signal transmission issues that hinder LCD border narrowing.

Side-mounted test lines avoid overlapping output pads, eliminating vertical defects caused by signal coupling during auto probe testing.

A remote control service interrogates application metadata to calculate a tailored data structure for mobile display.

Active polarizing layer switches states to block ambient light reflection, reducing display luminance requirements and power consumption.

A pre-configuration module outputs preset signals to shared signal reading lines before detection cycles begin.

A capacitive touch sensor formed directly on an optical film eliminates separate base plates to reduce display device thickness.

Dynamic voltage adjustment reduces stress on light emitting diodes during low grayscale image display, extending lifespan and preventing line defects.

Segmenting the source driving circuit into independent ramp DAC modules improves display uniformity while managing technology process complexity.

Stacked via-hole connection structures in non-aperture regions reduce electrical load, preserving flatness and aperture ratio for high refresh rates.

Correction coefficient generating circuit adjusts image data based on local brightness to uniformly illuminate the display panel.

Shared drive electrodes merge pressure and touch functions, reducing manufacturing complexity and component count.

Optical pattern projection and camera detection acquire three-dimensional surface data on moving glass sheets.

A pixel structure uses a back gate electrode to receive delayed voltage signals.

A timing controller chip detects write protection pin voltage levels to control initialization configuration code reading.

Integrating sensor pixels into the display panel eliminates the need for a separate fingerprint module, reducing assembly complexity and manufacturing costs.

Management controller generates virtual monitor to keep GPU active for video rendering without physical display.

An asymmetric electrode structure with varying trunk-branch angles optimizes electric field distribution in liquid crystal displays.

Edge detecting circuit segments frame data to store only critical edge pixels, reducing memory size while maintaining overdriving accuracy.

A controller estimates liquid crystal panel temperatures using stored relation data from a single sensor.

Pixel circuit storage units hold display data to enable selective pixel updates, reducing power consumption during static image frames.

Dual thin film transistors in each pixel cell enable independent driver pairs to prevent information loss during single driver faults.

Reordering data bit input sequences minimizes logical transitions, reducing power consumption while maintaining accurate gray level representation.

Pixel circuit holds arbitrary driving voltages between ground and power-supply levels, enabling wide grayscale range without increasing pixel size.

Segmenting display updates into fast black-and-white and high-quality grayscale phases resolves the trade-off between visual appeal and update speed.

Dynamic reference voltage adjustment minimizes voltage drop across the current sink, reducing power loss in parallel white LED arrays.

A light-emitting element driving method selects preset pulse signals with varying voltages to achieve target backlight brightness levels.

A display control circuit calculates average source voltage during suspension periods to minimize potential differences between electrodes.

A display data processing method uses a noise reduction function to determine gray-scale values for dimming pixels in dual-screen local dimming systems.

Segmented signal applying circuits extend data writing time, resolving insufficient voltage change periods that degrade image stability and yield.

Shift registers duplicate pixel data to form macropixels, reducing input data stream complexity while preserving low resolutions.

Emission control TFT manages kickback effects to improve luminance uniformity without increasing bezel area.