Input/Output Processes For Data Processing TRIZ Cases

Uniform intervals between touch driving periods synchronize stylus signals, reducing ping count and power consumption while maintaining sensitivity.

Trigger logic detects stroke completion in digital dental impressions, altering shaded regions while reducing computational resource consumption.

A capacitive touch sensing structure uses an insulating layer with holes to connect conductive cells while maintaining electrical insulation.

A dummy electrode in an input sensing layer compensates for voltage drops in light emitting elements, ensuring uniform brightness across the display.

A human-machine interface renders a clean-screen layer over the application display to intercept touch inputs during maintenance.

Multiplexers merge touch electrode groups to reduce signal lines, resolving narrow bezel wiring complexity.

Phase detection circuit generates time signal to delay mixing operation, preventing output signal distortion from exceeding dynamic range.

A touch scanning method uses a fast done process to calculate and report coordinates immediately upon finger detection.

Concave structures in touch electrode intersections reduce vertical projection area to improve display quality.

A multi-modality recognizer processes gaze, gesture, and speech inputs to generate scene control commands for multimedia interfaces.

Conductive plates compensate for missing mesh patterns around camera holes, preventing bridge breaking and ensuring reliable signal transmission.

A touch integrated circuit switches between mutual and self-capacitance modes to detect finger and pen inputs on a single panel.

Sloped scanning light paths expand light blocking area margins, reducing false foreign material detection and enhancing touch responsiveness.

Dividing the frame period into separate display and touch intervals reduces signal interference, improving accuracy.

A stretchable touch panel uses segmented unit patterns to reduce adhesive contact area and improve laser lift-off process efficiency.

A capacitance sensing circuit measures self and mutual electrostatic values to differentiate water droplets from finger touches.

A single-channel digitizer pad controller senses electromagnetic field frequency and phase changes to determine external input pressure intensity.

A transmitter switches between all channel and single channel modes to optimize beacon signal reception.

A stylus mediates data transfer between electronic devices using gesture recognition and wireless modules.

A touch element design arranges sensing series in a non-overlapping configuration to simplify manufacturing.

Virtual hover zones and dampening mechanisms constrain cursor motion to resolve parallax errors and shaky hand instability during precise targeting.

Merges conductive traces into display and battery packs to eliminate dedicated substrates, reducing assembly complexity and device profile.

A rigid stylus head uses an electret to enhance capacitive touch sensitivity.

Injecting compensating charge onto the receiver electrode during a non-overlapping time period eliminates shadowing effects caused by large RC time constants.

High temperature annealing crystallizes indium tin oxide to strengthen touch electrodes, preventing damage during polarizing plate rework.

A switching circuit reconfigures three electrodes in an active capacitive pen to support MPP and USI protocols, resolving single-protocol limitations.

Segmented display panels resolve the contradiction between interface complexity and pixel selection precision by enabling independent panning and zooming.

GUI maps physical sensor layout to visual representation, eliminating manual command entry errors during capacitance sensing configuration.

Speculative read command prepares slave data in advance, resolving synchronous conversion limitations while maintaining I2C compatibility.

A control unit calculates reference coordinates and adjusts detection regions to stabilize position tracking during hovering operations.

Dynamic control icons resolve awkward positioning by adapting selection units to drag distance, improving precision without sacrificing ease of operation.

An auxiliary electrode on a touch panel corner increases the overlapped area between crossing electrodes to boost capacitance.

A capacitance detection circuit cancels base capacitance using a dedicated cancel circuit before signal conversion.

A display device uses a second force sensing electrode with a non-uniform gap to detect pressing forces accurately.

Piezo sensor arrays measure applied force at multiple locations on a touch display, resolving the trade-off between measurement precision and device complexity.

A sensor-integrated display panel uses a contact electrode frame to vary sensor signal potential upon touch.

A touch sensor integrated display device merges driving and sensing electrodes into a common layer to reduce parasitic capacitance.

A touch-sensitive display system identifies new touches using distance and time thresholds to separate distinct events from continuous gestures.

Dual image sensors capture reflected light from a touch object to determine movement direction without a separate reflecting frame.

An input device allocates operational functions to a detection region using an optical detector and variable allocation unit.

Information processing device displays molding quality data on a radar chart to enable intuitive user input.

Transformation nodes mediate data between business objects and user interfaces, enabling multiple presentation formats without altering backend structure.

Relocates inactive windows to a taskbar when overlapped, decluttering the desktop while preserving quick access.