Static Indicating Devices TRIZ Cases

A dual-groove structure separates flat and bent regions, integrating silicon and oxide TFTs while reducing leakage and driving voltage.

Color imbalance in ride displays is addressed with precomputed layers selected by guest configuration and viewpoint.

Shared light-emitting elements occupy different rows and emit at separate times, supporting flexible layouts while reducing flicker.

A flexible PCB links the display substrate to an external drive board, reducing thermal impact on light-emitting devices.

A delay control circuit selects position-based timing signals to align pixel outputs across divided drivers and reduce display unevenness.

This display pixel circuit merges biasing and source functions to reduce contact holes while supporting high-resolution pixel layouts.

Sound electrodes deform a shared vibration layer for audio, while sensor electrodes detect input without a separate sound generator.

Barrier lines, trenches, and cover patterns limit hydrogen migration from the bezel, preserving oxide-TFT circuit reliability.

Shared non-volatile memory lets TCON and TIC avoid costly flash integration.

Per-zone lookup tables use present and previous frame APL to compensate voltage loss and reduce visible OLED image artifacts.

Movable knives, hooks, and linkages deform screen regions to improve AR depth and resolution with fewer motors.

Separate scanning-line paths and a higher-impedance connector preserve display uniformity while reducing the O-cut border.

External-device signals and login history differentiate accounts, helping shared displays simplify repeated user selection.

Alternating, shifted output pads and bumps align the driving chip with the display panel, reducing cracks and connection failures.

Routing separated signal-line segments through a display sub-region reduces bezel width, parasitic capacitance, and display nonuniformity.

This pixel circuit separates threshold-voltage and light-emitting-element compensation to improve color consistency.

Synchronized reset and line selection extend pixel sensing during display compensation.

A voltage control module maintains the electron-hole ratio across gray scales to limit OLED color shifts during high-temperature testing.

This display structure uses insulating-layer holes and stacked conductors to route signals without shorts in narrow bezels.

A multi-transistor pixel circuit compensates threshold shifts before emission, helping preserve image quality across frame frequencies.

Corner connection points preserve regular films while avoiding outward ear holes and bezel growth.

A coupling grating redirects light for efficient under-display image capture.

An independent MCU generates virtual input data through protected interfaces, separating touch processing from the OS to protect privacy.

Different black-state voltages for colored light-emitting elements narrow data signals and reduce power use across brightness modes.

This case adjusts pull-down transistor voltage signals to reduce transistor size and bezel area while preserving gate-driving function.

Dual repair pixel blocks target defective pixels with location-based drive currents.

Thermal layers and ambient-light control balance AR brightness and casing temperature.

A charge pump creates a higher-absolute-value gate low voltage, reducing power use in gate and emission drivers.

Pre-positioned backup bonding portions patch defective sub-pixels, improving yield without sacrificing display resolution or pixel density.

Current-based light-unit quantities balance display brightness and power use.

Dynamic refresh pulses synchronize under-screen components and reduce display interference.

The method converts volume coordinates for interactive 3D viewing, reducing complex operations when examining medical scan data.

This array substrate uses power lines across two conductive layers and via holes to reduce resistance and improve OLED display stability.

This case combines SRAM pixel storage with unweighted PWM to reduce column-line toggling and display dynamic power at high resolution.

Segmented gate-driver stages switch by mode, preserving pixel sampling time during high-speed, adjustable-resolution display operation.

A QB node discharging circuit resets internal driver voltages during power-off, supporting stable display operation after cycling.

A segmented driving element uses distinct gate widths and a lower metal pattern to widen range and improve gradation expression.

Polygonal pixel openings and chamfered mask corners improve deposition accuracy, preserving resolution and manufacturing yield.

Grouped initialization lines reduce luminance deviation around a display hole.

Separate bottom metal layers, channel overlap, and buffer layers stabilize TFT connections and improve display image quality.

This case uses segmented color sub-pixels and separate emission lines to balance luminous efficiency, luminance, and color accuracy.

This display pixel circuit shares transistors across pixels to reduce count, power use, VRR flicker, and image unevenness.

A frequency-aware gain circuit adjusts video data between frames to maintain luminance consistency during low-speed operation.

Periodic light-emitter dimming reduces interference and improves optical signal accuracy.

This case uses reference-current subtraction, filtering, and integration to improve pixel-current accuracy while reducing noise and leakage.

This case places optical electronics behind the display for light reception and uses gate-line coupling to reduce luminance differences.

Converted gradation patterns reveal signal-path non-linearity on displays.

This gate-driver case uses a hold capacitor to maintain gate voltage, limit drain-source stress, and support reliable signal generation.

This case shows how a master display unit detects slave contacts and updates image data for automatic large-screen configuration.

Successive gray-value patterns map phase shifts, enabling in-situ microscope recalibration across wavelength changes.

A gate driving circuit precharges a first node via a dedicated input circuit to generate stable k-th gate signals.

Varying submount thickness manages heat dissipation to prevent wavelength drift from temperature differences, ensuring consistent oscillation wavelengths.

A method computes overdriving targets using dynamic frame switching and median filtering to optimize subpixel signal transitions.

Dummy lines mask fan-out leads in the array substrate, reducing macroscopic visibility while maintaining electrical connection reliability.

A hydrophobic insulator acts as a protective barrier in electro-wetting displays to prevent fluid corrosion of colored layers.

Segmented insulating protrusions position light-emitting diodes to isolate emission regions, reducing current leakage and waveguide phenomena between subpixels.

Segmenting the display via a floating window resolves the contradiction between full-screen casting quality and device multitasking capability.

An adjustable multiview display shifts its optical convergence plane to maintain consistent inter-view spacing, eliminating cumbersome external light sources.

A backlight controller adjusts LED intensity multiple times within each display frame to enable smooth luminosity transitions.

A multi-output shift register unit consolidates gate driving functions into a single circuit block.

Optical sensors extract structural non-uniformities from AMOLED panels to modify input signals and correct pixel variations.

Integrating resetting and compensation circuits reduces transistor count, enabling narrower bezels while maintaining display quality.

Segmented subpixels with distinct light-emitting devices reduce pixel visibility and weight in augmented reality headsets.

Dual gate transistors store threshold voltage in stages to prevent current variations during high frequency display operation.

Overlapping mesh conductive layers shield detection signals from display driving noise, maintaining sensitivity in thin profiles.

A vehicle cluster display uses a translucent mirror film and LED light source to generate an infinite reflection image for intuitive driving information presentation.

A gesture-based viewport controller maps composite gestures across heterogeneous touch screens to expand a single logical display area.

A display device controls sub-pixel light-emitting duration and driving current using pulse width and amplitude modulation signals.

A luminance compensation circuit uses a detector and timing controller to adjust data signals.

A microcrystalline silicon I-type layer absorbs longer wavelengths to boost optical-to-electrical conversion efficiency.

High light-transmissive metal wires extend through via-holes to connect display and transparent areas.

Segmented source signal wires with distinct voltage levels reduce vertical crosstalk and leak currents caused by high load capacitance in dense display arrays.

A signal supply device generates data signals using adjustment values to ensure consistent luminance across pixels in an electrooptical display.

Integrating the gate driver on the display panel reduces bezel area while maintaining image quality through optimized circuit layout.

A transparent electronic display in retail cases tracks consumer goods selection via door sensors and a central processing unit.

Asymmetric shift registers in a gate driving circuit reduce power consumption while maintaining image quality.

An interline electrode portion generates horizontal electric fields between signal electrodes and pixel electrodes.

A semiconductor display driver selects output terminal arrays with different layout pitches to support varied mounting configurations.

Periodic activation of pull-down maintaining circuits reduces thin-film transistor aging and power consumption in gate driver on array circuits.

A display device arranges power supply lines to overlap fan-out portions in the peripheral area for compact circuit integration.

Shifting peripheral color filters and reducing their thickness compensates for light intensity loss in wide viewing angles, maintaining image quality.

Virtual driving units fill gaps in rounded angle regions to resolve etching non-uniformity and improve encapsulation reliability.

A display driver fault detection circuit binarizes pixel driving voltages using a threshold voltage to identify signal anomalies during non-display periods.

A controlling device manages electronic shelf label placement via a stored location table and wireless gateway.

A grayscale control structure uses strip-shaped electrodes to form lens units that refract light through specific exit strips.

Three transparent conductive layers shield transistor noise and form storage capacitors to resolve in-cell touch panel defects.

Bidirectional scanning resolves black screen errors when worn incorrectly by using a switch circuit to reverse signal flow through the shift register group.

A display panel compensation method calculates target values using linear interpolation across grayscale levels.

A light-shielding layer isolates temperature sensors from emitted light interference, ensuring accurate thermal data for luminance compensation.

A controller adjusts data signal output timing based on scan line loads to synchronize pixel charging across the display panel.

A liquid crystal display device uses a common voltage compensator to adjust electrical potentials based on image data patterns.

A viscosity layer with a water-absorbing filler prevents external moisture from entering the organic light emitting display device.

Dynamic display panel data compensation adjusts gray-scale values based on viewing angle improvement rates to maintain image quality.

Merging multiple sensing units into one shared output resolves contradictions between coverage and accuracy in organic light emitting displays.

An optical sensor measures reflected light from a reflective layer to adjust pixel intensity, resolving aging-induced performance degradation.

A system generates a three-dimensional tour of intermediate destinations by detecting visual characteristics of persons across geo-located photos.

Segmented supporting layers with sealant-filled openings prevent plastic LCD substrate sagging during manufacturing.

Optical compensation method adjusts gamma voltage to eliminate stain phenomenon caused by uneven thin film transistor characteristics.