Static Indicating Devices TRIZ Cases

A display driving device uses a noise detector and backup memory to restore register values during power supply disturbances.

A transmitting device requests high-resolution images from a server to match display capabilities.

Alternating orthogonal light-modulating elements spatially change scattering patterns to reduce laser speckle in display devices.

Segmented pixel openings vary area ratios to resolve white balance trade-offs without compromising circuit layout density.

An image processing device adjusts luminance based on color saturation to reduce power consumption.

Co-optimizing CPU and GPU dynamic voltage scaling levels reduces total power consumption while maintaining required performance deadlines for graphics frames.

A first power supply wire overlaps the sealant in the peripheral area to reduce dead space.

Varied pixel pitch in bending regions reduces stress intensity and prevents cracks while maintaining resolution in non-foldable areas.

Adjusting insulating layer thickness instead of varying resistivity simplifies Fresnel lens design while maintaining reliable electrical insulation performance.

A hybrid display merges organic light emitting diode units with electrophoretic segments on a single substrate to produce visual output.

Pixel circuit adds offset elimination stage to switch drive transistor off before reset.

A display device uses a multi-layered metal black matrix to lower touch electrode resistance.

Driver circuits on one substrate side route current vertically to loads on the opposite side.

A charge sharing circuit precharges LCD data lines to lower power consumption.

A mobile terminal bypasses real-time light sensing to unlock faster.

N-type LTPS and oxide semiconductor transistors reduce current leakage and maintain voltage stability during low voltage driving.

Segmented LED panels form a unified sphere, replacing bulky projectors to cut power consumption and simplify assembly.

A display system maps virtual pixels to shared physical LEDs using interleaved rows and temporal frame sequencing.

Level-shift chip detects excessive current in GOA clock traces, stopping power supply to prevent screen melting from short circuits.

Distinct initialization voltages accelerate green pixel charging, resolving color dragging in low-luminance grayscale displays.

Phase-shifted AC signals applied to peripheral electrodes sweep ionic impurities, resolving display unevenness while reducing power consumption.

An electrochromic structure adjusts transmittance to enhance display contrast.

A sweep voltage generator adjusts output signals via a current generating block to maintain precise pixel gray scale in micro LED displays.

Insulating banks confine organic semiconductor islands while a high dielectric gate insulator reduces parasitic capacitance, improving current ratio.

A timing control driving board uses an overvoltage protection circuit to disconnect power supply paths.

A 7T2C pixel driving circuit compensates for threshold voltage offsets in thin film transistors to maintain stable current flow.

Backlight control circuit generates independent fixed and variable period signals to stabilize duty cycle.

A segmented bias line configuration isolates individual display pixels to minimize electrical interference and crosstalk in electro-optic displays.

Dynamic voltage tuning adjusts bias voltages across subframes to counteract transistor hysteresis and eliminate flicker at lower refresh rates.

Micro lenses in the overcoat layer redirect internally reflected light to enhance luminance while preventing electrical short circuits at outermost sub-pixels.

A voltage detecting module synchronizes data line signals with common voltage terminals during power transitions to prevent image sticking.

An opaque auxiliary electrode shields the drive circuit from light irradiation, reducing leakage currents and lowering resistance.

A head wearable display device uses column injectors along an optical pathway to deflect optical signals into a pupil-expanding waveguide visor.

Master board distributes reference voltage to slave boards, suppressing luminance differences across divided display areas.

Intermetallic compound interfaces join device-side and driver-side electrodes, simplifying complex bonding processes.

Pixels integrate photo sensing regions to detect reflected biometric light during blank periods, eliminating separate non-active region hardware.

A driving circuit adjusts data signal output timing based on line position to synchronize with multi-phase clocks.

Alternating TFT connections reduce scanning line density, increasing the pixel opening ratio and maintaining screen brightness without high-power backlights.

A liquid crystal display panel groups data lines to selectively perform charge sharing based on gray-scale differences.

Zigzag touch electrodes with alternating inclinations offset pixel patterns to prevent moiré interference.

Segmenting deep vias into staggered openings reduces coating control difficulties and prevents moire formation on the film layer.

A partition member with low thermal conductivity blocks heat transfer between the main and driving circuits, protecting components during bonding.

Mixed high and low domain pixels with distinct alignment region counts resolve the view angle versus aperture ratio trade-off while reducing power consumption.

Capacitors connect between pull-up transistor gates and output nodes to maintain gate signal rising speed despite buffer transistor deterioration.

Overlapping the fan-out conduction lines with the ESD circuit area in a horizontal semiconductor structure reduces the short side length of the chip.

A pixel circuit compensation method adjusts light-emitting current using pre-calculated coefficients derived from transistor gate and source potentials.

Independent amplifier timing compensates for gate signal propagation delay in large display panels.

A complementary gate driver on array circuit reduces component count by merging pull-up and pull-down holding functions into a single integrated module.

A pixel driving circuit uses a second capacitor to adjust node potential and improve data signal range.