Static Indicating Devices TRIZ Cases

A router-based pairing scheme lets one screen mirroring transmitter serve multiple receivers, expanding virtual displays while reducing network load.

Alternating pixel groups across sub-frames cuts peak current and IR drop in micro LED display panels while preserving luminous efficiency and image quality.

A constant-level precharge followed by PWM control speeds laser unit illumination and improves projector display response.

A narrowed capacitor connection pattern improves array substrate light transmittance while preserving power signal routing for under-screen cameras.

A second electronic device handles setup inputs for pairing output devices and adding users, cutting redundant interactions and power use.

Alternating odd and even gate-driver stages with coordinated clocks stabilizes gate signals as display area expands.

A second capacitor holds gate-source voltage during emission, stabilizing subpixel current and keeping OLED luminance consistent.

Reduced anode area in non-driving OLED regions lowers capacitive load, helping maintain uniform brightness and narrower display borders.

Resetting the driver transistor gate and both electrodes each frame suppresses residual potential, reducing flicker and brightness drift.

Shared redundancy sub-pixels let adjacent micro-LED pixels cover defects with fewer backup elements, cutting structure complexity, cost, and power.

Sequential data driving and staggered gate periods let adjacent display pixels share one data line, cutting bezel width and power use.

Current-sensing voltage feedback adjusts display driving voltage in real time to preserve response speed while cutting power consumption.

Mixed polycrystalline and oxide TFTs cut display power use, while one etch forms bending openings and contact holes to simplify fabrication.

A ground line placed between different power lines cuts electric fields in the non-active area, reducing wiring corrosion in micro LED displays.

Angled, overlapping sub-pixel openings cut boundary reflections and preserve aperture ratio for clearer in-vehicle display visibility.

A constant-voltage shield pattern overlapping scan wiring suppresses electrical coupling, improving signal integrity and display image clarity.

A punched reflective sheet recycles polarized light to narrow beam angle and deliver bright, uniform vehicle display illumination.

Sniffed display commands are serialized and securely mirrored to a virtual HMI, enabling remote industrial assistance without direct access.

A router-managed pairing scheme lets one screen mirroring transmitter connect to multiple receivers while reducing setup effort and network load.

A lower insulating layer beneath the light blocking layer reduces reflection, improves transmission-area transmittance, and cuts module noise images.

Adjacent pixels share redundancy sub-pixels and micro-drivers to cut pixel complexity, power use, and display manufacturing cost.

A corner electrical connection layout replaces ear holes in electronic paper screens to preserve display area, shape regularity, and material yield.

Dual clarity and haze evaluation guides light control sheet driving to keep scattering stable and reduce object recognition discrepancies.

By moving fingerprint driver transistors to the non-display area, the panel keeps display pixel space while enabling optical fingerprint sensing.

Gamma-corrected grayscale data is compressed for transmission, letting cascaded LED modules drive larger screen areas within the same bandwidth.

Measures OLED pixel voltage with sensing transistors and CDS to track deterioration and reduce burn-in and residual image differences.

Using P-type transistors, this gate driver cuts scan-signal rise and fall times, shrinks bezel area, and improves display driving stability.

A patterned connection portion disperses bending stress between the curved display panel and driver, reducing tearing and light leakage.

TFT-driven liquid crystals between polarizers steer light to suppress under-screen diffraction and prevent image distortion from strong light sources.

Adaptive charge current control speeds OLED data-line voltage switching while reducing display error, power use, and heat.

Switch modules isolate or connect touch sub-regions so foldable display panels keep touch sensing where needed while reducing power use.

Sensing capacitors linked to data drivers detect COF overcurrent early, helping prevent heat damage and display panel failure.

Capacitor-coupled scan driver nodes suppress transient bias voltages, improving transistor lifespan and display signal reliability.

Nanostructures embedded in a common electrode layer guide long-wavelength light-emitter growth, reducing defects and improving micro-LED reliability.

Routing data supply lines across stacked conductive layers lowers resistance and write-time delay, helping display panels maintain image quality.

Separate silicon gate drivers from oxide pixel transistors to support 1 Hz refresh, fast gate signals, and lower leakage in OLED displays.

A mesh VDD supply and reference-voltage output in the gate driver compensates TFT variation, limits IR drop, and keeps OLED luminance uniform.

Dummy patterns and segmented sensing electrodes mask visible touch components while preserving sensing accuracy and display visual quality.

By splitting still and video regions and driving them at different frequencies, the panel cuts power use while limiting flicker.

Monochromatic sub-hogels and color-partitioned metasurfaces direct RGB light with high angular resolution while easing chromatic and fabrication limits.

Early compensation transistor activation and bias control curb NIR sensor leakage effects, preventing display luminance drift during proximity sensing.

A bus-and-branch initialization layer stabilizes signals in high-resolution OLED sub-pixels while reducing routing load, layout difficulty, and mura.

Compensation maps adjust pixel luminance at curved display edges to correct dim viewing angles and preserve uniform brightness and color accuracy.

Segmented display wiring and through-hole bridging isolate gate-data shorts and restore pixels with minimal impact on surrounding areas.

A shared reset line with mode-specific signal patterns lets one display sensor structure handle ambient light, color, and fingerprint sensing.

Predictive gamma adjustment uses prior-frame APL and brightness data to keep OLED luminance and color consistent in SDR and HDR modes.

Lower hydrogen in the first gate insulator creates electron traps, widening transistor driving voltage range without enlarging pixels.

Shared driver IC wiring and a collimating layer let LCDs detect fingerprints and vein patterns while keeping a narrow frame.

A light processing structure at color filter boundaries blocks high-angle rays by total internal reflection, reducing adjacent sub-pixel crosstalk.

Measured brightness values are re-sorted into a calibration table to reduce mini-LED backlight grayscale jumps, posterization, and uneven luminance.