Static Indicating Devices TRIZ Cases

An electro-optical device shifts resonance to inclined angles, enabling a lens to improve light extraction efficiency.

Integrated measurement circuitry within display driver ICs enables direct bond resistance quantification through flexible printed circuit contacts.

Integrating a crack-sensing line into an insulating layer recess detects minute cracks, preventing moisture permeation and unnecessary product rejection.

A digital document page numbering system displays reference and fractional indices to correlate physical source pages with variable screen renderings.

A touch control display device uses a two-dimensional self-capacitance sensing array to detect touch locations.

Calibration lookup tables store pre-characterized duty cycle and current parameters to compensate for manufacturing process variations in light emitting diodes.

A light-modulated photodiode monitor detects display functional states using polarized pulsed signals and fold mirrors.

A compensation gate driver uses distinct clock waveforms during scan and blank periods to maintain signal levels.

A current limiting circuit adjusts pixel gain based on screen power to maintain display gamma characteristics.

An information processing apparatus identifies target devices and displays cooperative functions using augmented reality markers.

Bumpy reflective surface boosts reflectivity and response speed, solving low visibility issues in electro-wetting displays.

Markers overlap polarizer plates in non-display regions to enable high-precision optical element attachment.

A shift register circuit uses internal node precharging and pull-down transistors to manage electrical connections.

Segmented gate lines manage pixel emission and reset states, reducing afterimages while distributing electrical load.

A grounded heat pad dissipates thermal energy from large thin film transistors, preventing organic layer damage and gas generation in flexible displays.

A pixel circuit uses a voltage prewriting sub-circuit to store supply voltage in a capacitor before light emission.

Stress relieving transistors limit drain-source voltage stress on scan driver transistors during data writing and concurrent compensation periods.

An electrostatic discharge circuit increases current paths to enhance discharging speed and capacity.

Pixel circuit merges N-type transistors under unified scan signals, reducing scan circuits from three to two for narrower OLED frames.

Integrating an opaque resin shade structure with the molded body suppresses light leakage from misaligned decorative sheets, ensuring display quality.

Independent gate driving of segmented subpixel rows increases the aperture ratio while reducing charging and compensation times.

A display panel uses misaligned metal layers to create surface irregularities that enhance sealant adhesion on the insulating layer.

Segmenting photosensitive devices resolves OLED color trajectory interference with ambient light sensing, improving brightness control accuracy.

Network interface enables the processor to receive command messages and automatically display alert images, eliminating manual operation delays.

A segmented source-drain metal line structure connects adjacent portions via a second layer to form a planar mesh.

An embedded touch array substrate uses switching signals to connect electrode lines to a common voltage source.

Calculating peak-intensity ratios and change rates determines optimal RGB gain values, resolving spectrum inconsistencies across display units.

A scan line driving circuit uses a demultiplexer and grounding switches to control display pixels.

Heating control circuits generate localized heat to change deforming layer hardness, enabling touch operation without visual reference.

A LED backlight controller synchronizes modulated control clock signals with pixel clocks to drive individual LED strings.

A common voltage generation circuit adjusts the reference level using feedback from voltage detectors to balance polarity data voltages.

Synchronizing sampled reflected light intensity with scanning time enables precise pupil detection without additional imaging devices.

Through hole array design stabilizes parasitic capacitances across clock signal lines in display panels.

Halftone masking creates segmented insulating layers that reduce parasitic capacitance while maintaining drive transistor performance in display panels.

Dynamic vertical blanking time adjustment maintains constant display brightness during frame rate switching, reducing memory and circuit complexity.

A longitudinal foldable display panel integrates main and sub-screen functions into a single flexible unit.

A current spreading layer pillar confines injection area within an LED active region to boost internal quantum efficiency.

Motor-controlled rotation of a display screen creates a volumetric 3D illusion, eliminating the need for complex optical arrays.

A display panel design transfers gate drive wiring to a first substrate, enabling efficient signal transmission across substrates.

Contrast adjustment unit generates control signals to synchronize timing with scanning and display signals.

A TFT conditioning circuit attenuates serial data clock amplitude to reduce electromagnetic interference in display devices.

Asymmetric staggered rhomboid pixels boost aperture ratio and brightness without requiring tighter mask openings.

A display panel drive method adjusts a second common voltage based on a preset threshold to maintain a fixed voltage difference.

A display controller adjusts calibration timing based on memory power noise to maintain stable driving conditions.

Separate testing lines isolate sub-signal layers to identify damaged pixels despite adjacent short circuits.

Segmented gate electrodes minimize leakage current and flicker while varying initialization voltage line width reduces voltage drops across the panel.

A display substrate integrates light-emitting elements and photoelectric conversion elements in a repetitive unit arrangement to optimize light collimation.

Differentiating drive frequencies for blue subpixels ensures adequate charge accumulation, reducing luminance shifts and improving efficiency.