Static Indicating Devices TRIZ Cases

Separate PAM and PWM paths use test transistors to electrically verify pixel circuits in tiled displays.

A controller uses region-specific lookup values to reduce mura and border visibility while preserving display resolution.

This case uses stacked conductive layers to compact data fanout wiring and narrow the display substrate’s lower border.

In-display gate and emission control circuits reduce frame size while preserving display uniformity.

A dynamic pull-up potential and inversion feedback control reduce leakage while supporting reliable display-panel gate driving.

Electrochromic films tune reflected color for bright, low-power displays.

This case combines DC and periodic AC gate signals to limit transistor threshold-voltage changes and improve display reliability.

A driving controller activates sensor resets between user input attempt and actual input, reducing power use and sensor stress.

This display panel driving structure matches clock frequency to data bits, reducing dynamic power and component area.

A segmented drive sequence distributes pulse widths across modulation intervals to reduce LCD phase ripple and power dissipation.

This case uses area-specific source-control slew rates to limit switching EMI while preserving stable high-speed signal transmission.

This display panel combines emission control circuits to adjust same-color pixel timing while reducing control lines and wiring space.

Series PMOS and NMOS inverter stages selectively output display signals, reducing bootstrapping power use for multi-frequency driving.

A dual-capacitor pixel circuit separates brightness and emission time control to improve grayscale, contrast, and color stability.

Terminal resets stabilize pixel bias and brightness during refresh-rate switching.

Variable initialization-line loads can shift pixel voltage; switched resistors maintain a constant load for more uniform luminance.

This case shows how etched semiconductor portions let hydrogen exhaust ports connect transistor layers while reducing display dead space.

A display control circuit adapts regional sampling periods to track burn-in stress and maintain consistent brightness and color.

This display panel overlaps load-adjusting portions with clock lines to balance resistance and reduce horizontal stripe defects.

Multi-resolution stress data improves image sticking compensation across input formats.

Polarization control, partial reflection, and active-matrix liquid crystals enable dynamic eyewear images while preserving ambient vision.

This display layout alternates signal-line coupling across rows to drive adjacent gate lines and improve high-definition imaging.

A separated, stacked capacitor structure stabilizes pixel voltage while supporting efficient transistor fabrication and improved luminance.

Alternating pixel circuits tune color-group voltages, sustaining luminance while limiting micro-LED color-coordinate drift.

This display panel uses silicon sensing patterns and through-hole electrodes to improve light emission while simplifying mask-based manufacturing.

A layered display panel embeds gate driving circuitry with shielding to reduce parasitic capacitance and narrow the bezel.

This case adjusts gate-signal pulse widths only on mura-affected pixel lines, correcting luminance deviation while preserving other lines.

A frequency-based horizontal sync signal and interpolated gamma voltages preserve image quality across standard and high frame rates.

Grouped subpixels and lenticular lenses render viewpoint-specific images for wide-angle 3D with clearer, smoother viewing.

This display substrate combines RGB and white sub-pixel rows to improve brightness and white balance while managing array complexity.

This display layout connects parking voltage lines to data lines during blank frames, reducing flicker, noise, and luminance variation.

Selective grayscale gradation reduces horizontal crosstalk while preserving display sharpness.

This array substrate gathers sensing-region wirings and adds light-shielding strips to improve captured-image brightness and definition.

Spatial, temporal, and spatial-temporal BVH nodes manage moving objects across shutter time for accurate, efficient motion-blur rendering.

A separate touch-signal path lets the display driver defer redisplay timing, improving touch response during low-refresh operation.

Separate connection-wire segments and non-overlapping reset/write timing improve data accuracy by limiting signal coupling.

This case uses stacked semiconductor layers and connected gate electrodes to reduce scan-circuit occupancy and minimize non-display area.

Protruding bank structures and alternating pixel arrangements constrain ink flow, improving placement and layer uniformity.

An error detector distinguishes initial synchronization failure from sync loss, helping the host and controller maintain stable clocks.

This display panel adjusts sub-pixel charging and common voltage to balance brightness across shared data lines.

This gate driver staggers high-rate clock phases to limit control-node ripple while maintaining accelerated display scanning.

An inspection signal measures voltage and current so the touch circuit can compensate for process and transmission deviations.

Pixel-group current mirrors reduce voltage drops and grayscale variation in MicroLED displays.

A shared blanking unit and cascaded transmission circuits reduce OLED gate-driver area while supporting random compensation.

Shared nodes simplify GOA gate driving circuits, reducing transistors and layout area.

Interlaced scan lines partition one substrate for seamless images and ESD protection.

Separate device, operation, and content areas guide MFP selection while stored device information supports execution.

Capacitance-sensitive electrodes are integrated with micro LED pixels to capture fingerprints while preserving display quality.

One driving circuit controls two opposing display panels, reducing chip count, cost, power use, and device thickness.

Adaptive video playback control helps prevent OLED burn-in without disrupting viewing.

A dual-mode display device switches pixels between active light modulation and transparency to enable dynamic content rendering.

A boundary display panel covers neighboring seam areas between element panels, eliminating visible seams that deteriorate image quality and reliability.

A subpixel circuit maintains uniform luminance by proportioning driving current to data voltage.

Segmented flexible printed circuit board connects double-sided OLED substrates with protruded alignment features for precise coupling.

Setting the intermediate node potential reduces reverse bias on the write transistor to prevent threshold voltage shifts during light emission.

A photoelectric sensor detects light intensity reflected from a non-opaque cover plate to determine pixel uniformity.

OLED touch display panel relocates the touch control chip to the array substrate, reducing thickness and weight while maintaining electrical connectivity.

Integrating touch electrodes with pixel driving chips detects capacitance variations, reducing transfer lines and simplifying device configuration.

An oxide semiconductor layer supplies oxygen to the active layer, ensuring a wide range of driving voltages despite reduced pixel current.

A display repair circuit uses dummy pixels and transistors to generate driving currents that compensate for threshold voltage variations in defective pixels.

A backlight driving circuit employs N-channel MOSFETs with a follower and capacitor to regulate voltage.

Segmenting transistors into high-speed drivers and low-power switches optimizes energy usage while maintaining display reliability.

A color control method calculates modified duty ratios using equations to smoothly modify display colors.

A transmissive diffuser panel with adjustable spacing merges LED illumination to create dynamic, three-dimensional visual effects.

Time division prevents high transverse voltage damage in electro-optical devices using electrochromic materials.

Parallel output stage unit circuits increase current drive capability, resolving the trade-off between high scan rates and circuit complexity.

Segmenting driving signals into resetting and driving periods prevents white particle accumulation, eliminating blurred edges on colored text.

Weighted multi-sample resolving calculates final pixel values from coverage amounts to produce smooth color transitions in three-dimensional re-projection.

Adjusts backlight and pixel gray-level values to enhance chromaticity and luminance uniformity, resolving Mura defects without rejecting secondary products.

A timing controller calculates a sensing ratio from two data voltages applied to the driving TFT gate node during programming and sensing periods.

A field sequential display shifts the write start position by one line between sub-frame periods to reduce color breakup artifacts.

A light-transmitting plate body is positioned through limiting protruding portions on a first frame inner surface.

A projector display control section acquires equipment control information to manage connected devices autonomously.

Segmenting common electrodes lowers output impedance and suppresses pixel crosstalk caused by high resistance.

A display panel reuses data lines as test signal paths to eliminate extra wiring in the border region.

An image processing apparatus calculates specific luminance values from pixel histograms to adjust gradation correction levels.

A pixel circuit uses a current control circuit to switch between small and large OLED elements based on tone levels.

A display panel driver adjusts reference grayscale values to stabilize luminance-to-current efficiency in organic light emitting diodes.

Divided driving parts route gate signals through connection lines to reduce transmission delays without increasing bezel size.

Switches route image signals via standby lines when normal drive wires break, preventing dark or bright display artifacts.

A liquid crystal display border area diffuses light from zone backlighting elements, reducing halo effects and power consumption.

An intermediary blurring pixel set adjusts gamma levels to blur the borderline in camera-under-display devices, resolving visual discontinuity.

Extending source lines through hole bezels into secondary pixel arrays reduces bezel width while maintaining signal continuity and image quality.

Series anticreeping transistors block leakage current to maintain data signal voltage and enable narrow bezel designs.

A display device routes scan lines to avoid intersecting drive transistor gate wiring, reducing parasitic capacitance.

A bent connection member fixes a circuit board to a main frame, reducing device thickness while enhancing electrical insulation reliability.

Segmented power sources isolate sensing circuits from display noise, stabilizing voltage levels and improving measurement precision.

A P-type circuit stage controls voltages to supply high-level scan signals.

A shift register pull-down circuit manages node voltage levels to maintain gate driving signal integrity.

Asymmetric pixel opening widths compensate for oblique light entry angles in micro lens arrays.

Virtual reset modules in cascaded GOA units reduce structural differences between units, improving circuit stability despite TFT process variations.

A timing controller adjusts virtual sub-pixel driving signals using grayscale histogram analysis and adjacent pixel comparison logic.

A potential maintenance circuit holds pixel electrode voltage during the hold period using selective transistor connections.

A liquid crystal cell uses a driving signal to create a voltage gradient along transparent conductive layers for spatially variable optical response.

Curved protrusions in the planarization layer redirect trapped light, resolving total internal reflection losses.

Opposite driver placement with intersecting gate lines simplifies wiring routing for narrow frame non-rectangular displays.

A medical support system segments simultaneously captured endoscopic images to allow physicians to select and display specific subsets.

A caching mechanism stores processed visualization data from a cloud analytics engine to accelerate software widget rendering.