Static Indicating Devices TRIZ Cases

A display data driver switches to power cut-off or stand-by modes based on image frame rate signals.

A flexible display apparatus uses a pressing part to secure the screen during rolling operations.

Signal controller applies spatial-temporal division processing to image signals for non-quadrangular display pixels.

A gate drive circuit uses monitoring transistors and comparators to sense threshold voltage shifts.

Integrating an LED display with multi-parametric sensors eliminates external hardware, allowing immediate visual feedback of heart rate and oxygen saturation.

Information processing apparatus estimates crop yield using predicted and actual harvest data to notify harvesting progress.

A regional overdrive method applies a weighting mask to combine current and previous image data, generating output pixels with variable drive strength.

Flexible strips integrate light sources with driver circuits to create lightweight active markers, eliminating external light interference.

Surface modification of the infrared material layer improves heat exchange capacity and emissivity without compromising display performance.

Annular wiring minimizes IR drop in large displays, ensuring homogeneous brightness without extra components.

Dynamic pull-down maintenance modules disable during touch periods to reduce charge leakage while preserving signal integrity.

Grouping sub-pixels into three-column sets coupled to two compensation detection lines increases detection speed and extends display time.

A display driver calculates average pixel data to selectively perform charge sharing between data lines.

A folding display panel integrates light emitting pixels and light sensing areas to calculate fine dust concentration via light scattering.

A virtual golf simulation apparatus projects images on front and floor screens to create an immersive environment.

A flexible organic light-emitting display device uses a layered composite structure to prevent moisture ingress and charge trapping.

Integrated gate driving units on the substrate enable arbitrary splicing of mini-LED backplanes while reducing component count.

A liquid crystal display uses frame rate weights and lookup tables to generate corrected overdrive values for sub-pixels.

A compensation circuit detects organic light-emitting diode degradation using parasitic capacitor charge sensing.

Regional backlight control adjusts LED emission luminance based on image signals to reduce power consumption in liquid crystal displays.

Segmented frame driving stabilizes luminance transitions to reduce motion blur without ghost image artifacts.

Varying anode thicknesses within a micro-resonant chamber resolves the trade-off between high opening ratios and color purity, improving light saturation.

Cascaded shift registers with independent control units maintain low-level node signals, resolving instability in display panel driving circuits.

A chip on film test pad uses a segmented base film to fix probe needles and prevent shorts between conductive layers.

An over-driving device manages image signals across frames to adjust gray values and brightness levels in liquid crystal displays.

A shift register circuit discharges a first node before an output terminal to reduce dynamic power consumption.

Segmenting scan electrodes into independent groups allows an image display medium to reduce connector wire count while maintaining high resolution.

Segmented pixel circuit uses enable transistor to activate auxiliary drive only during degradation, maintaining luminance without increasing power consumption.

Repeated gate voltage sampling amplifies discrepancies in pixel-driving circuits, distinguishing short-circuit induced threshold anomalies from normal values.

A transparent display device optimizes signal line placement to maintain uniform luminance across subpixels.

Detector analyzes feed-in voltage to prevent short circuit caterpillar effects in scan displays.

Segmenting the frame period into distinct initialization and compensation phases reduces threshold voltage noise in organic light emitting diodes.

Inclined surfaces on optical layers refract emitted light to control emission angles, resolving uniformity issues in head-mounted displays.

A shift register uses voltage shifting and inverting modules to output delayed startup voltages.

Segmented insulation films isolate orthogonal signal lines to prevent short-circuits from foreign matter and reduce parasitic capacitance.

Adjusting positive and negative polarity driving voltages to control liquid crystal orientation for precise luminance viewing angle management.

Rerouting electrical connections through the drive chip body reduces non-display area height while maintaining manufacturing cost efficiency.

Controller measures pixel currents to set final driving power voltage, preventing bright spots and image quality deterioration.

Segmented temperature sensors map pixel heat to drive real-time gamma correction and prevent image sticking.

Merging red, green, and blue color filters into an overlapping structure prevents connection electrode breakage caused by differential thermal expansion.

A display device relocates driving units to the rear substrate surface with exposed wires for external connection.

Subdividing large numeral values into preset digit portions allows operators to switch displayed segments via keys, avoiding hexadecimal conversion confusion.

Concave back plate support integrates a thin solar module to extend usage time while maintaining structural stability and original manufacturing processes.

A laminated dimming module uses flexible circuit boards to connect electrodes, ensuring precise alignment of electrical connection points.

Data signal links route signals within the display region to connect source drivers and data lines, reducing edge width for thin device designs.

A liquid crystal display uses a gate sharing structure with interlace driving to reduce power consumption.

A gate driver outputs one driving pulse per horizontal cycle to control initialization, reference, and write transistors across different rows.

An optical fingerprint sensor uses a collimator filter to focus reflected light, enabling detection through thick cover layers without blurring.

A liquid-crystal display panel uses variable color-resistance layer thickness to adjust sub-pixel transmittance across distinct regions.

Separating sensor and pixel scan lines prevents signal interference, enabling accurate fingerprint detection within the display area.