Static Indicating Devices TRIZ Cases

A segmented display apparatus dynamically adjusts image rewriting frequencies across independent sub-portions to optimize power usage.

An active glass cell defaults to opaque during power transitions, blocking unauthorized camera access while maintaining device reliability.

Distinct signal routing paths reduce the non-display area, allowing higher resolution without increasing the overall device frame size.

A crack sensing line overlaps the encapsulation layer to detect thin film damage via electrical resistance changes.

A display panel uses pixel light for fingerprint sensing while a luminance controller adjusts gamma voltage to boost brightness only in the detection area.

A DDIC chip adjusts OLED refresh rates using vertical front porch timing signals to match application processor output.

A charge trapping memory transistor stores pixel data within the display pixel structure.

A planar fluorescent screen stack converts excitation light into visible images using quantum dots and phosphors.

A display driving method adjusts gray scale voltages to correct color cast issues in LCD panels.

A display device adjusts pixel gradation values at region boundaries to compensate for internal light intensity disparities between adjacent partial regions.

Varying transistor width-to-length ratios per sub-pixel compensates for optical retardation differences and eliminates yellowish color shift in side views.

A display device adjusts gamma compensation voltage ranges to maintain consistent pixel luminance across the panel.

Shielding part blocks external light from transistor boundaries, suppressing leakage currents and preventing luminance changes in OLED displays.

Curved signal line geometry distributes bending stress across flexible array substrates, preventing line disconnection defects caused by high folding amplitude.

A square mini-LED matrix display module enables complex lighting surface shapes while maintaining compatibility with existing electronic hardware architecture.

Alternating scan line drive sequences averages luminous intensities across rows, eliminating flicker and brightness differences in portable displays.

A gate drive method adjusts signal duration to balance pixel charging across scanning lines.

Dummy circuits with capacitors collect external static electricity on signal wires before reaching lighting circuits.

Temperature-dependent control of a dedicated fourth sub-pixel compensates for brightness shifts, eliminating color cast in OLED displays.

Shared gate lines reduce array substrate wiring, lowering COF usage and manufacturing costs.

Electrochromic pixels adjust opacity to maintain visibility without backlight activation, reducing power consumption during semi-static operation.

A ground connection electrode bridges spaced ground lines and pads on a display substrate, preventing arcing during dry etching.

Optical coupling layer with refractive index 2 to 2.3 enhances light extraction efficiency in organic light-emitting display panels.

Boost circuits pre-charge gate electrodes of oxide TFTs to overcome low mobility, reducing drive power consumption in active matrix substrates.

A detection device applies staged voltages to OLED gate lines and measures storage capacitor electrode potentials to identify physical breakpoints.

A streaming relay system renders digital signage frames into video streams for remote display devices.

Dual-end circuit segmentation reduces signal delay and voltage drop across electrode lines, ensuring uniform display brightness.

Repositioning data pads aligns fan-out lines parallel with data lines, decreasing bezel width by eliminating diagonal routing.

Segmenting connections into flexible printed circuit boards reduces manufacturing costs and improves yield for cascaded data driver chips.

A liquid crystal display panel uses pad structures with a thickness gradient to optimize optical performance.

A Mura compensation method shifts grayscales and generates an index table to calculate values via interpolation.

Sensing wires overlap the sealing adhesive layer, reducing OLED border width while enabling laser curing.

A controller applies drive voltage to bus bars of electrochromic devices to produce effective voltage within a safe range across the device surface.

A display apparatus places dummy wiring adjacent to signal lines with increased offset distances to suppress electrostatic breakdown.

Merging via holes with pixel defining openings simplifies manufacturing steps while expanding the effective emission surface area.

A display device link unit places a second conductive line on a separate layer to minimize parasitic capacitance across sub-pixels.

A display device uses heating wiring to segment an intermediate conductive layer between adjacent pixels.

A pixel circuit uses a discharge control circuit to manage drive current stability in OLED displays.

Auxiliary metal lines coupled to power lines via via holes reduce internal resistance, ensuring uniform light emission across pixel units.

A pixel array structure positions a white sub-pixel at the center of a lattice formed by red, green, and blue pixels.

A display device temperature determiner extracts sensing data from multiple pixel colors to update thermal information rapidly.

Time-division multiplexing reduces data line pins while segmented electrodes enable independent voltage control to resolve flicker and luminance mura.

A connection electrode discharges accumulated charges in the charge generation layer, preventing lateral leakage current between adjacent sub-pixels.

Parallel data lines and relocated pins prevent fractures, ensuring consistent signal delivery across folding regions.

Segmented pixel rows with asymmetric connection wiring reduce power consumption and simplify layout complexity around sensing areas.

A display device uses segmented sub-insulating layers to increase capacitor capacity within a limited space.

Segmented circuit modules compensate for driving transistor threshold voltage to resolve display instability and reduce power consumption.

A pixel circuit manages driving current magnitude and duration to stabilize light color across grayscales.