Static Indicating Devices TRIZ Cases

A double-gate driving transistor stabilizes OLED currents through integrated feedback mechanisms.

A pixel circuit measures electrical current through the data line to calibrate drive transistors.

A second conductive part extends vertically above a line scanning drive circuit to widen the overlap area with a conductive connection layer.

Time-division processing by two horizontal drive circuits reduces layout area and eliminates reference voltage lines, narrowing the frame width.

A display apparatus integrates a conductive cover layer over the driving chip to shield electromagnetic waves.

Adaptive conversion ranges resolve trade-offs between compensation strength and precision to reduce residual images.

Reset control sub-circuit connects second cascaded input end to multiple start signal ends, eliminating virtual shift registers and reducing display delay.

A display device uses separate scan drivers to manage pixel signals and ensure sufficient threshold voltage compensation time.

Dual segment signal lines enable real-time anomaly detection in liquid crystal drivers by comparing drive and monitoring signals.

A driving module generates binding-point voltages using a two-wire connecting cable and local voltage division circuits.

Vertical stacking of driving and data supply transistors resolves threshold voltage deviations that degrade image uniformity at small pixel sizes.

A display drive circuit uses a compensation circuit to regulate drive currents across pixel units.

Wider protruding data line segments provide stable repair wire contact areas without reducing light transmittance in high resolution displays.

Segments the display into separate panels to eliminate planarization layers, preventing OTFT degradation from high-temperature processing.

A scan driving circuit generates compensation signals using logic arithmetic units connected to shift registers.

Shared reset transistors and asymmetric signal routing resolve layout complexity to optimize pixel space for higher resolution displays.

Segmented drive electrodes with integer multiple widths align mutual and self capacitance sensing blocks, reducing touch detection errors.

Redundant electrodes allow selective soldering of light-emitting elements, preventing monochromatic dot misalignment during panel splicing.

A display device applies specific voltage differences to a P-channel drive transistor source and gate electrodes during threshold correction.

A dual elastic member structure positions a touch panel over a display surface using distinct hardness levels.

Combining row and pixel drivers in backbone chips reduces silicon area usage and panel peak current for large displays.

A pixel driving circuit time control sub-circuit turns off the light-emitting device after a preset duration to shorten working time.

Voltage providing module supplies initial and first power supply voltages to the driving module under reset control.

Segmenting pixels and using dual scan drivers resolves the trade-off between reduced output lines and insufficient scan periods.

A display panel driving device integrates asymmetric transmission circuit boards to equalize signal paths across the source side.

Switching transistors enable reusable LCD wiring structures, eliminating laser cutting costs and recovering inspection infrastructure value.

Segmented reset units eliminate image sticking by stabilizing transistor potentials during data voltage writing.

A display panel gate driver outputs differential voltage signals to adjacent subpixel columns.

A driving circuit generates pixel shift calibrated touch coordinates using a dedicated calculating unit.

Merging gate and anode initialization into one transistor reduces component count, easing layout density constraints to improve manufacturing yield.

A GOA circuit generates negative impulse waveforms using only N-type TFTs.

A pixel circuit uses a switching transistor to drive display lines sequentially.

Stacked conductive and connection pattern layers increase vertical spacing to minimize anode initial voltage differences and prevent display stains.

A mobile terminal compares landscape and portrait usage statistics to automatically select the preferred display orientation.

A pixel circuit stabilizes data line voltage via a compensation capacitor, suppressing parasitic capacitance fluctuations inherent in SSD driving schemes.

Hinged moving sheets driven by a pushrod linkage adjust display curvature to resolve asymmetrical viewing angles across multiple viewers.

Segmenting electrodes into through-hole and surface parts eliminates peripheral plating regions, boosting base utilization.

A light pointing device generates intermittent flashes synchronized with the system reference clock cycle to conserve energy during non-sensing intervals.

Distinct data line pitch and arrangement sequences in the hole bezel zone reduce capacitance coupling and vertical stains near the through hole.

A driver circuit with a logic control module generates driving control signals to manage current flow through output pins on an array substrate.

A pixel circuit uses data and compensation currents to establish gate voltage for light emission control.

A display driving circuit compares adjacent pixel data to set channel amplifier states, securing stabilization time and reducing static current.

A shift register unit incorporates a variable resistor to adjust scanning signal levels based on environmental conditions.

Modulating semiconductor light sources at unique timings enables failure detection via high-pass filtering, preventing visible interference during projection.

A display drive circuit uses switches and resistors to convert single-potential control signals into complementary high and low potentials for chip management.

A variable-resolution display emits light from pixels arranged at different spatial separations to transmit data via a digital camera.

A single display panel paired with non-overlapping wavelength filter lenses generates independent left-eye and right-eye images for stereoscopic viewing.

Vertical connection lines link driver and flexible circuit pads to lower line resistance, reducing signal noise from adjacent line interference.