Static Indicating Devices TRIZ Cases

A grooved inorganic-organic stack simplifies TFT interconnection, cuts mask count, and improves alignment accuracy in flexible display panels.

A single-mask TFT layout for flexible display panels cuts mask count and process complexity while preserving speed, reliability, and bendability.

A multilayer fan-out interconnection and insulating layer improve LED module protection, layout freedom, and reliable light emission in displays.

A surrounding mounting-electrode layout improves micro-LED power uniformity, lowers resistance, and supports higher pixel definition.

Winding signal lines and compensation capacitors balance pixel loads around a camera opening to preserve display quality and pixel density.

Synchronized pulsed light and variable-transparency viewing improve outdoor display contrast while cutting power use and enabling solar assist.

Multiple vias and segmented climbing connections keep display clock lines stable against breakage and static electricity during scan signal output.

A patterned bump layout spreads mounting pressure on flexible substrates to prevent bending and display-unit detachment during driver bonding.

A low-k interlayer insulating stack cuts parasitic capacitance between data wires and gate electrodes, improving signal integrity in high-resolution OLED panels.

Widened semiconductor regions around contact holes block etchant penetration from misalignment and keep adjacent OLED pixels uniformly lit.

A segmented dual-gate transistor layout boosts display charging speed while suppressing leakage current and high-current failure risks.

Vertically stacked RGB LED layers increase sub-pixel light-emitting area, simplify mounting, and reduce light interference in micro displays.

By reverse-biasing display LEDs to read photo-generated current, the panel adds light sensing without separate sensors, cutting size and cost.

Divided gate electrodes linked across layers cut antenna-effect charge buildup in scan line driver shift registers, improving display yield.

A three-layer storage capacitor and shared gate electrode stabilize pixel-circuit voltage and cut leakage currents in OLED and QLED panels.

A bankless OLED pixel uses a via-hole layout, light absorption layer, and repair pattern to cut process steps while preventing leakage and shorts.

Placing micro pixel controllers in row spaces between pixels removes height-based obstruction and widens the viewing angle of micro-LED displays.

Encapsulated optoelectronic units with shared supporting structures shrink LED pixels while preserving mechanical strength and optical efficiency.

A shortened second substrate exposes wiring pads for side-pad driver connection, enabling display bezels of 1 mm or less.

Optimized Si:N and N-H charge trap layer composition improves OLED transistor drive current, boosts luminance, and reduces afterimages.

Keyword-tagged metadata and screen snapshots let drivers quickly back up and restore AVN app states without searching raw snapshot data.

Shortest-path converging wires linking shielding-layer through holes reduce charge buildup and lower OLED panel ESD risk.

Different active-layer thicknesses let driving and switching transistors balance hysteresis, ΔDR, and off-current in displays.

Different RGB transistor width-length ratios boost blue emission and raise display brightness while maintaining white balance.

Parallel sub-transistors with shared gate electrodes boost gate-driver current while shrinking non-display bezel area in display panels.

Multiple gate driving circuits with shared signal lines and staggered timing stabilize brightness and cut low-frequency flicker and power use.

Matched demultiplexer capacitances compensate voltage jumps on unequal data lines, improving brightness uniformity in special-shaped displays.

Overlapping gate lines and stacked conductive patterns route signals without separate fan-out lines, shrinking display bezel area and device size.

A double-gate TFT and built-in capacitor stabilize AMOLED pixel node voltages, reducing leakage current and threshold drift.

Different transistor width-length ratios across RGB sub-pixels boost blue emission and maintain white balance in bright OLED displays.

A dual-region display substrate keeps emitter density uniform while raising camera-area transmittance to preserve resolution and display quality.

Different trace lengths balance capacitance between adjacent dual-gate pixels, improving brightness uniformity without reducing opening ratio.

Using front and rear board bonding with stacked pad connections, this case cuts bezel area while reducing bonding defects and board interference.

A TFT intermediary decouples programming from emission, enabling 100% duty cycle, lower drive current, and longer OLED and micro LED life.

Cold forming creates multi-axis curved glass below the glass transition temperature, cutting hot-forming energy, cost, and strain.

A peripheral trunk line and ground-line layout suppresses ESD defects in GDM gate drivers, improving display panel yield and reliability.

Lower-temperature bonding and fewer metal bonds help hybrid TFT micro-displays limit CTE walk-off while increasing LED density.

Phase-change grooves and heating lines enable simultaneous RGB Micro LED transfer, shortening transfer time and improving placement yield.

Time-divided current density lets one InGaN micro LED emit RGB light, removing wavelength conversion layers to simplify display fabrication.

Light-blocking lines on an OLED vehicle display redirect emission away from windows, reducing reflected glare in the driver's view.

A distinct vehicle icon highlights the car requiring deceleration, helping drivers identify collision risks faster in autonomous driving.

Interruptions in photomask pixel control patterns dissipate static charge during GOA exposure, reducing ESD damage and improving drive circuit yield.

Combining visible LEDs, infrared emitters, wavelength conversion, and optical sensing, this lighting case recreates a sunlight-like spectrum indoors.

Transparent conductive layers and an electrolyte enable dimming by metal deposition while preserving conductivity and adding energy storage.

KSF or MGF red phosphors replace red quantum dots to avoid green-light reabsorption and raise luminous efficiency with high color purity.

Projects no-entry and passage zones during detected overtaking, using existing vehicle sensors to improve safety without continuous power use.

A shielding layer tied to a driving voltage line blocks parasitic coupling in TFT pixels, reducing off-currents and color deviation.

A conductive member routed through the display layer preserves electrode connection while shrinking panel border width for slim-bezel displays.

Placing the ESD circuit between the display region and common-line compensation structure saves profiled-edge space and evens line loading.

Combining silicon and oxide TFT layers with display-area semiconductor patterns improves voltage control and pixel circuit uniformity.

Integrated sub-signal lines and multi-layer wiring keep opposite-side gate signals synchronized, improving display uniformity and transmission stability.

Color-specific transistor width-to-length ratios shrink pixel circuit area for high-resolution displays while preserving RGB driving capability.

Parallel renderers feed a compositor to merge system and app content streams, easing XR processing bottlenecks and improving display continuity.

Temperature sensors on the reflective component trigger brightness reduction or closure to protect a head-up display from sunlight overheating.

An integrated image sensor inside an OLED display tracks user gaze to adjust brightness while reducing external optical components.

Dynamic XR mode switching reallocates base system resources to support more concurrent apps while preserving application performance.

Bent scan-line routing around storage and connection electrodes reduces luminance deviation while preserving capacitor area for high-resolution displays.

Alternating first and second pixels with shared subpixels widens viewing angles while slowing subpixel deterioration in displays.

Compensation circuits reset and decouple pixel terminals to offset threshold voltage drift and keep display driving current stable.

Temperature sensing and control-chip biasing adjust TFT conductive layers to limit threshold voltage drift and leakage in gate-on-panel circuits.

A shaped pixel and sensor layout improves biometric recognition accuracy by strengthening light sensing within the display.

Non-overlapping MUX gate lines use vertical separation and contact routing to cut signal distortion and wiring damage in touch displays.

Selective driving of dual light-emitting elements lets one pixel circuit switch between privacy and shared display modes.

Adjacent pixel control transistors share one channel portion to lower ON resistance and improve OLED image quality and contrast.

A simplified pixel circuit stabilizes node voltages during low-speed skip driving to reduce voltage loss and keep display luminance consistent.

Zigzag auxiliary power lines avoid overlap with scanning lines, cutting coupling capacitance and stabilizing display panel signals.

Dual output pull-down circuits shorten gate signal fall time in odd-even interlace GOA, helping large displays keep narrow borders.

Adding a capacitor between initial signal lines boosts anti-coupling in LTPO pixel circuits and reduces bright and dark lines at low gray values.

Using reset, scan, and light-emitting control signals, this OLED pixel circuit cuts transistor count, power use, and narrow-frame display complexity.

Segmented scan lines and contactors distribute power through multiple paths, lowering power line load and improving display reliability.

Asymmetric auxiliary pixel spacing preserves luminance and light transmittance when display areas extend around embedded electronic components.

Shared via formation connects stacked display panel patterns in one mask step, cutting process complexity while preserving camera-region transmittance.

Data-line connection portions align signals across mixed pixel-density regions, preserving OLED brightness and current above an under-screen camera.

Varying pixel capacitor capacitance and control timing by region reduces brighter edge emission at low brightness and improves in-plane uniformity.

Groove-defined grids filled with organic insulator absorb impact and bending stress, helping foldable displays protect gate circuits and last longer.

Selective PWM and impulse driving improves LED brightness linearity and color expression in low grayscale regions.

Variable gate voltage levels between address and self-scan periods suppress LTPS leakage, reducing flicker and vertical crosstalk.

Pulse voltage switching manages light-blocking particle dispersion to prevent dark spots and luminance loss in wide-angle display mode.

Capacitive compensation stabilizes gate-source voltage in LTPO pixel circuits, reducing leakage current, afterimage, and flicker.

Line-symmetrical transistor and capacitor layouts improve current uniformity, brightness control, and image quality in display pixels.

A spaced first light-shielding layer improves etching removal, cuts residue and chamber contamination, and preserves display luminance.

Real-time signage position mapping links on-screen identifiers to physical displays, improving visualization and simplifying control operations.

Multi-pulse emission control with OBS reset during EM off periods reduces pixel power variation and duty mura in display panels.

Splitting scan logic and buffer circuits between peripheral and display areas reduces bezel size by overlapping buffers with pixel circuits and LEDs.

Local clock output circuits and node control narrow the display bezel while cutting scan-line power use in the panel stage.

Ambient-light sensing switches transflective and active panels while calibrating brightness to reduce color shift, improve contrast, and save power.

Openings of different sizes in an OLED common voltage line vent baking gas and protect electrodes and wiring from defects.

By routing a test pad through segmented lines and connection links, the layout equalizes signals to test transistors for more accurate lighting inspection.

Diagonal thin-film transistor placement increases heat-source spacing in gate drivers, lowering temperature without enlarging the display bezel.

When exposure time hits its limit in low light, brightness adjustment keeps live view visible without sacrificing smooth motion.

Varying emission clock lengths controls LED emission time to suppress flicker, improve image quality, and lower display power use.

A shared output control transistor in the mux block selectively connects data lines, cutting bezel width, transistor count, and power use.

Alternating pixel-group transmittance and directional backlight timing reduce image leakage and improve clarity for different viewing positions.

Dynamic voltage switching in LPWG mode reduces touch-scan disturbance, screen flashing, and accidental or failed wake-ups.

Shared pull-up nodes let one scan driver output more gate signals in less bezel area while node voltage control keeps scan levels stable.

Direct SPR-domain frame processing avoids true-color conversion, reducing image distortion, bandwidth demand, and display power use.

An electrochromic optical path layer switches display light between transmission and shielding to control viewing angle without sacrificing resolution or luminance.

Variable-width sensor electrode rows and bridge lines improve touch connectivity and display quality without a uniform layout.

Segmented electrode routing and larger via connections cut cathode IR drop and signal interference, improving large OLED display uniformity.

A multilayer electrode with insulating holes and conductive manifolds evens potential across electro-optic media for consistent zone activation.