An asymmetric mesh pattern distributes pitch values to prevent moire phenomenon while maintaining high light transmittance for clear visibility.
An optical compensation layer adjusts touch panel border color through interference, preventing pigment discoloration during high-temperature manufacturing.
Optical sensing replaces capacitive methods to measure panel deformation, resolving low sensitivity and interference issues in force touch displays.
System resolves camera perspective unpredictability in 3D modeling by computing pixel distances between object bounding boxes to snap faces into alignment.
An ultrasonic electronic stylus adjusts operation parameters to generate continuous signals during low-pressure writing strokes.
Routing common signal lines under pixel electrodes via planarization layers reduces bezel size and RC delays while maintaining display quality.
Cut-out patterns on the first sensing board member concentrate external pressure at specific points, reducing structural complexity and manufacturing costs.
Dragging a movable control triggers dynamic interface transitions, resolving the trade-off between simple operation and limited interactivity.
A multi-dimensional fabric system anchors content using time and location coordinates to enable dynamic grouping of information cards.
Out-cell optical touch device detects display panel dimensions via position sensors to calculate offsets, eliminating manual calibration errors.
A correction matrix defines active regions in non-rectangular touch arrays to modify unit cell values.
Processor applies force level calibration data to amplitude and size information for accurate touch assessment.
Replacing amorphous silicon with oxide semiconductors eliminates parasitic capacitance and improves light sensing accuracy.
A single controller processes pointing stick and touchpad signals via shared transmission paths, reducing device complexity and maintenance costs.
A slide bar with a movable handle indicates page position on an electronic book display.
A stylus pen uses a ferrite core and magnetic body to detect pressure through resonant frequency changes.
A tablet input method senses successive positional inputs and renders graphics between them when the time difference stays within a defined threshold.