Static Indicating Devices TRIZ Cases

A bridge electrode replaces the driving connector to cut parasitic capacitance, reducing OLED display cross-talk and luminance variation.

Series-parallel pixel switching adjusts active light emitters and current flow to improve low-grayscale display quality and limit color gamut shifts.

Switchable light-emitting element groups adjust current paths to preserve color coordinates and low-grayscale image quality.

A grounded conductive layer overlapping the panel extension shields the signal driver from external high voltage noise, reducing flicker and touch instability.

A compensation capacitor between adjacent OLED pixels stores leakage current to suppress crosstalk and improve grayscale display quality.

Integrated light sensors let micro LED modules self-correct brightness while direct substrate splicing removes visible gaps and frame-heavy assembly.

Selection and driving units switch series micro LEDs by gray level to raise power utilization, brightness, and display depth.

A cutoff-region semiconductor film balances OLED scan-line load to reduce delay, distortion, and luminance unevenness across large displays.

Matched gate and auxiliary line patterns even out electric fields in pixel arrays, reducing rainy V lines in narrow-bezel displays.

A segmented light-emitting layout and shielding part steer target images forward and interference images sideways for privacy protection.

A shaped floating electrode between upper and lower display lines prevents cutting damage, short circuits, and current leakage.

Combining europium-doped GaN and InGaN/GaN quantum wells boosts red LED efficacy, cuts power use, and widens color rendering.

By merging voice content into the current projected page, this case avoids encoder resets and reduces display delay in smart rearview mirrors.

Alternating insulating layers with different refractive indexes reflect downward-emitted light forward, improving display luminance and output efficiency.

A pillar-mounted cab display stays visible and clear of the overhead door, linkages, lift arms, and joystick in front entry machines.

Separate pixel electrodes for quantum-dot and organic emitting layers avoid stacked light loss and improve extraction from both color regions.

Using two transistors and gate-driver signals, this case generates switchable OLED emission signals while shrinking non-display area for narrow bezels.

Cup-like reflective isolation around micro-LED pixels redirects oblique light to boost brightness, improve contrast, and reduce crosstalk.

A shielding portion between the data line and capacitor plate cuts parasitic coupling, stabilizing TFT gate voltage and OLED pixel gray levels.

A variable-transmittance mirror display integrates light sensing into the panel to cut glare at night without reducing display area or adding thickness.

Grid lines on a separate layer let faulty GOA connecting lines be laser cut or welded, restoring shorts or opens without masking.

Overlapping signal lines across insulating spacer layers shrink light-emitting points and raise pixel density in light field displays.

Doubling the light transmission region between pixel areas helps high-PPI transparent displays reduce diffraction ghosting without enlarging the substrate.

Selective laser ablation opens light-transmitting regions in opaque cover glass, hiding sensors without semi-transparent ink or added process complexity.

Metastructured primary optics redirect each LED pixel independently to shape far-field light while preserving color uniformity.

Individually controlled backlight LEDs stay in a more efficient current range, cutting power use while maintaining luminance and contrast.

By combining liquid crystal transmission regions with OLED reflection regions, the panel stays visible across bright and low-light environments.

Windmill-like polygonal sub-pixels pack more aperture area into OLED displays, lowering driving current and slowing device aging at the same resolution.

Independent multi-electrode pixels speed liquid crystal reorientation, enabling symmetric switching and antenna resonance control.

Divided pixels paired with inorganic light emitters combine area coverage and light emission control to greatly expand display color gradations.

An interference preventing block and line layout cut parasitic capacitance, reduce vertical cross-talk, and limit OLED anode tilting.

A shared channel for adjacent control transistors lowers ON resistance in OLED pixel circuits, improving contrast ratio and image clarity.

Organic photovoltaic cells power electrochromic glazing to vary visible light, cut installation cost, and reduce solar heating.

Different hydrogen levels in stacked insulating layers repair defects while blocking diffusion that destabilizes oxide TFTs in OLED circuits.

Inclined reflective surfaces and light-scattering particles boost light extraction from small emitters while reducing color deviation.

By shifting HUD white-light color temperature away from the headlamp, virtual images stay distinguishable on the road scene with less eye fatigue.

By connecting gate lines and upper electrodes through stacked conductive patterns, this case cuts bezel area without separate fan-out lines.

Asymmetric self-assembly and thermal processing align ultra-small LEDs to cut blocked light, avoid shorts, and improve DC-driven luminance uniformity.