Static Indicating Devices TRIZ Cases

A staged gate-driving circuit uses phase-shifted clocks with pull-up and pull-down transistors to stabilize output and reduce circuit size.

Covered conductive patterns and layered encapsulation improve adhesion and reliability while limiting moisture in compact peripheries.

Diagonal light emitters connected in parallel provide redundant emission paths, helping preserve sub-pixel image quality despite defects.

Sequential power-off discharge removes redundant transistors while preserving gate signal discharge, reducing display bezel circuit area.

Power connections near curved gate-driver stages reduce non-display width while helping protect bending line integrity.

This case shows how overlapping capacitors and multilayer signal lines improve pixel density and resolution in flexible, bendable displays.

A seven-transistor pixel circuit supports parallel display and sensing while compensating threshold-voltage variation for uniform luminance.

During vertical blank periods, the pixel circuit senses source voltage and adjusts data voltage for real-time threshold compensation.

An insulated detection line monitors voltage differences to reveal signal abnormalities before the lighting test stage.

Thermal feedback adjusts a rotatable LCOS compensator for stable red, green, and blue optical performance across temperature changes.

A conductive layer in the flexible film grounds external static charge while edge structures reduce frame visibility and ESD risk.

This display assembly integrates phototransistors and switch transistors to reduce light loss and simplify touch and fingerprint functions.

A driving controller lowers refresh rates for static regions and raises them for video, balancing display power use and image quality.

The processor combines pattern detection, panel brightness, and emission ratios to adapt pixel sensing and reduce visible horizontal lines.

A detector identifies traditional or mini-LED backlights, then selects tailored calibration parameters to preserve display quality.

Measured panel luminance ratios are stored by gray level and refresh rate to correct display data and preserve color uniformity.

Separate scan, sensing, power, and clock-line areas stabilize gate driving and improve display image quality.

Normal and tracing circuit units combine compensation and fan-out lines to improve connectivity while limiting layout complexity.

This display substrate packs multiple signal lines into each shift register unit to preserve resolution while enabling narrow bezels.

A common line, voltage sensing, and capacitors share charge between channels to reduce power during alternating display data voltages.

Shielding layers support laser patterning while improving photosensitive-area transmittance.

Pixel driving circuits move to a transition area, while pixel gaps maintain continuous signal routing and improve light transmission.

A level shifter and gate driver switch scan modes to balance display load, reducing source driver overload and operating temperature.

This case uses the dimmest subpixel and a standard luminance value to equalize OLED output without raising drive current.

Selective pixel voltages enable local writing and partial erasing with lower energy use.

This HUD control approach detects SER/DES synchronization faults and resets motor position to stabilize image height during transmission.

Layered bias voltage lines reduce flicker during high- and low-frequency driving.

A control chip switches DSI paths so one ASIC can provide processed image data to multiple displays without added chip count.

Structured electrode layers let switchable automotive glazing provide touch control without separate mounting surfaces or added controls.

Selective gate-line activation combines detection with image driving cycles to reduce detection time through systematic checking.

A current detector activates an optional load below a threshold, preventing PFM voltage fluctuation and OLED brightness ripples.

Variable-voltage dummy pads protect output pads from corrosion, stabilizing contact resistance and preventing vertical display line defects.

This OLED pixel circuit combines NMOS switching with PMOS emission control to limit leakage and preserve low-gray image accuracy.

This pixel circuit fixes initialization voltage and tunes reset pulses to balance data writing, reducing OLED afterimages.

This case separates readout and data lines across layers to improve biometric sensing while preserving display integration.

Dynamic patch tracking cuts image data for low-latency, low-power AR sensing.

This case uses alternating anode reset lines, a mesh layout, and storage capacitors to stabilize VRR display operation.

Sensors reposition display content as flexible screens expand or contract.

Low-resistance thin-film transistors integrate gate driving into the display, simplifying connections and enabling a narrower frame.

Capacitors smooth voltage transitions to stabilize gate signals and reduce transistor stress.

Oxide portions on display-panel wire ends reduce cutting static electricity while helping limit water vapor intrusion.

Overlapping initialization and driving voltage lines across layers improve pixel aperture ratio while managing electrical connections.

This case uses an undercut line and reduced circuit structure to prevent abnormal operations across transparent display sizes.

A fragmented metal shield overlaps OTP devices in silicon OLED substrates, limiting radiation and UV damage during manufacturing.

A layered fanout layout places the connection line between power lines, avoiding interference and simplifying via-hole connections.

A vertical control substrate and pad connection improve display integration, design freedom, and power efficiency.

Segmented gate regions and added storage capacitance stabilize low-frequency display driving while preserving low power consumption.

A sensing, recovery, and buffering voltage sequence limits coupling, visible sensing lines, and luminance variation in display panels.

A controller adjusts data-clock levels and enable signaling so only drivers needing updates receive data, reducing time and power.

This pixel circuit uses two compensation paths and storage capacitors to reduce crosstalk and maintain brightness uniformity.