Static Indicating Devices TRIZ Cases

Sensors detect garment movement and shift image content to unobstructed zones, maintaining visibility despite body motion.

A pixel driving circuit initializes storage capacitors using dynamic power supply voltage levels to stabilize electrical states during data writing operations.

A display system uses a shutter to block light during image sub-frames, allowing transparent periods for camera capture.

A stacked liquid crystal on silicon device performs amplitude and phase modulation to generate independent binocular images.

Single display panel uses pixel blanking to show images on both sides, reducing manufacturing costs.

Segmenting PWM cycles into sub-periods distributes gray data evenly, resolving the trade-off between high refresh rate and linear gamma accuracy.

A remote operation unit validates drawing input operations on a display to control an external device screen.

A reference voltage lower than the threshold turns off OLED elements to improve motion picture response time.

Voltage supply circuit applies reverse bias to OLED common line during recovery periods, restoring photoelectric characteristics and suppressing decay.

A hybrid display device merges electrochromic layers with polymer dispersed liquid crystal to produce images using distinct electrode configurations.

In-plane electric forces move charged particles between display elements to achieve uniform distribution.

Integrated feedback transmission circuit on array substrate detects signal polarities and adjusts common electrode voltages.

A display panel with a slot extending through its thickness accommodates internal components like cameras and sensors.

Varied subpixel pitch distances disrupt periodic structures that cause diffraction, improving transmittance and clarity in transparent displays.

A display-driving circuit adjusts emission and frame transition periods based on image content to optimize pixel charging.

A pixel circuit uses a compensation transistor to generate variable voltage based on gray level data.

A display device uses varied pixel areas in non-display regions to expand driving space without enlarging the panel.

Control unit adjusts display brightness based on detected pupil region size to maintain consistent iris image dimensions.

Relocating pixel circuits from the outer edge to internal spacing regions narrows the bezel, reducing splicing gaps between adjacent panels.

Switching elements connect shared terminals to either image or touch signal lines, suppressing terminal count increases in the peripheral area.

Elevating a third wire above the gate line reduces parasitic capacitance, cutting signal transmission delay in large-sized liquid crystal displays.

An electronic display performs in-frame sensing using dedicated sense pixels to capture operational parameters without interrupting image rendering.

A display driver controls a variable current source via a comparator to reduce redundant power waste and heat generation.

A light emitting substrate uses segmented controlling units and multi-dimensional voltage signal lines to increase driving current.

A refresh pulse restores pixel optical states in color electrophoretic displays.

Segmented pixel structure increases aperture ratio by varying sub-pixel areas, resolving resolution trade-offs in AMOLED displays.

A timing scrambling circuit switches between multiple random number generators to produce varied scrambling signals.

Rear-mounted magnetic and coil units vibrate the display panel to direct sound forward, resolving thickness constraints.

Spatial light modulators generate steerable virtual images to reduce optical bulk in head-worn displays.

Anthraquinone dyes preserve color intensity by resisting photo-bleaching degradation under radiation exposure.

Segmented common voltage lines and compensation electrodes reduce RC delay distortions for consistent image quality.

Synchronization module stabilizes gate driver circuits using forward reverse switching and low potential lines.

A touch display panel drive circuit uses a data line switch to disconnect the pixel electrode from the drive unit during idle phases.

A bias adjustment circuit modifies the driving transistor state before data writing to stabilize threshold voltage.

Dividing source lines at gate intersections with expanded parts equalizes wiring load and prevents brightness variations.

An in-cell touch screen drive method segments scanning periods to isolate and remove interference signals from original touch data.

A timing controller analyzes image data to adjust voltage levels in a liquid crystal display power supply unit.

A driver monitor circuit detects transparent electrode resistance via terminal voltage monitoring in specific power supply states.

Shared pull-up and down-transmitting modules in cascaded gate driving units reduce TFT layout space, enabling ultra-narrow frame designs.

Random location module in GOA circuit selects rows dynamically to eliminate visible mura lines from fixed mobility detection.

Positioning touch wire intersections in the largest sub-pixel reduces visibility variation and improves color viewing angles for organic displays.

A ranging sensor measures distance across multiple units to detect face orientation, reducing power consumption and complexity compared to camera-based systems.

A gate driving circuit generates multi-level output voltages using an IGZO and LTPS transistor stack.

Differentiating standard and peripheral pixel structures reduces border width while maintaining high pixel density in the intermediate region.

Inclining display units changes pixel distribution ratios across orthogonal directions, resolving inefficient pixel usage in traditional flat displays.

Temporal segmentation of the frame period allows real-time hysteresis measurement without interfering with grayscale data input, reducing residual images.

A display panel uses a valley portion to integrate electronic components within the active area.

Segmented pixel electrodes connect to parallel data lines, allowing scanning line ends at different heights for flexible arrangement.

A touch panel mixer circuit uses low pass filtering and signal differentiation to generate a constant voltage level for precise sensing.