Static Indicating Devices TRIZ Cases

A lookup table generation system calculates alternate grey levels to accelerate liquid crystal response times.

A data driver adjusts output timing based on pixel distance to optimize charging.

A scan driver provides first and second scan signals at variable frequencies to maintain consistent luminance across display pixels.

Segmented GOA circuit with dual-side drive reduces signal line loading and power consumption for high resolution displays.

A gate driving module generates vertical start signals and clock signals to produce uniform voltage levels across display gate lines.

A display substrate design with a strip-shaped channel region and nested storage capacitor electrodes.

LED arrays integrated into eyewear lenses provide augmented reality displays without tethering to external power sources.

A liquid crystal display device uses common electrodes with different areas to achieve similar voltage-transmittance curves across all subpixels.

A second electrode receives a low potential voltage to shield coupling capacitance between gate lines and contact electrodes.

A display panel driving method adjusts light-emitting control signal duty cycles during keeping phases to maintain stable brightness levels.

A display driving controller manages separate frequencies for distinct panel areas to optimize image rendering.

Segmented GOA circuit drives specific display areas while deactivating non-displaying zones, reducing power consumption in flexible panels.

Determines actual aging values for separate display areas and writes compensation targets to registers, correcting uneven blue subpixel degradation.

Matching reset signal line current direction to power lines counteracts voltage drops, reducing luminance non-uniformity in OLED displays.

Sloped pad columns and interlayer dummy terminals reduce short circuit risk while maintaining luminance in high resolution displays.

A current measurement circuit for OLED displays uses an amplifier and threshold voltage compensation circuit to initialize driving current.

Region-specific wiring density and insulating layer thickness reduce signal attenuation in camera under panel regions while preserving light transmittance.

A display panel uses a dam structure to separate the camera cutout area from the boundary region, enabling independent driving circuits for lighting components.

A shielding electrode positioned between data and voltage lines stabilizes driving transistor operation in emissive displays.

Segmented electrodes with protective layers improve hovering touch detection accuracy while maintaining durability against mechanical damage.

A touch display device houses control boards in a receiving area between the screen and rear cover.

A liquid crystal display panel uses segmented pixel electrodes to control luminous flux distribution across distinct viewing regions.

Attaching polarizers to flexible substrates before cutting prevents film shrinkage and warping, ensuring surface flatness for circuit board bonding.

A flexible circuit board uses dummy terminals to form an external sink current loop for precise bonding resistance measurement.

Relocating VSS voltage lines across the display region removes obstructive bezel traces, expanding the transparent area and enabling a slim frame.

A display panel with bendable regions and a hollow region accommodates peripheral circuits outside the light-exiting surface.

A pixel circuit multiplexes scan signals to initialize and write data, simplifying the Gate Driver Integrated Circuit structure.

Merging red, green, and blue modulation into two units lowers device complexity while maintaining luminance.

A gate driving circuit removes the output pull-down transistor to reduce component count and bezel size.

A display driver corrects horizontal gradation lines by applying pre-calculated values from a lookup table based on adjacent line current differences.

A detection circuit with switching and analog-to-digital conversion sub-circuits manages sense lines to control pixel characteristic data signals.

A gate line voltage compensator calculates and applies a compensation value to address voltage drops along gate lines, maintaining stable transistor operation.

Thermo-sensitive conductive wires fuse under overcurrent, protecting display panels from heat damage.

Correlated compensation voltage balances hole and electron currents in the organic light emitting transistor, reducing wasted energy.

A screen casting transmission method adjusts encoding parameters using TCP header feedback to maintain stable data flow.

A light emitting substrate design connects address lines to drive circuits in the last row of units.

A tiled display device positions drivers away from bonding areas while arranging panels to overlap vertically.

Sensor controller synchronizes mode transitions with display frames to eliminate flicker while maintaining high detection accuracy for touch and pen inputs.

Scan driving buffers adjust transistor sizes to match scan line loads, minimizing RC delay variations across the display panel.

A 3D cell operates at a frame rate exceeding the display panel to separate optical axes for left and right eye images.

Alternating odd and even scan line activation minimizes voltage swing on source lines to reduce power consumption in display panels.

A segmented scan driver supplies discrete signals to pixel groups, securing data line charging intervals.

Vertical circuit nesting eliminates visible frames between display units, maintaining screen continuity without peripheral borders.

A display device driving signal constancy circuit maintains current flow through a driving transistor during pixel operation.

Photodiode generates photocurrent to adjust drive current, improving visibility in strong external light without increasing device complexity.

Variable common electrode openings compensate for clock wiring capacitance differences, ensuring consistent gate signal output timing.

A voltage sampling circuit detects abnormal liquid crystal deflection to trigger main control restarts.

A semiconductor device structure adjusts transistor gate-source voltage to prevent unwanted current flow during signal writing operations.

Dividing power lines into segments within the sealing area prevents UV blockage, ensuring hermetic sealing while minimizing signal distortion.

A segmented OLED display panel divides pixel rows to maintain consistent current consumption across the screen.