Input/Output Processes For Data Processing TRIZ Cases

Transparent resistive layer measures applied force through conductivity changes to resolve inaccurate pressure detection in touch screens.

A coordinate detection method uses linear electrodes to detect pen position and tilt data for accurate input.

Segmented DONE primitives indicate credit or acknowledgment timeouts, enabling orderly SAS connection closure and preventing abrupt data loss.

A touch screen keyboard dynamically enlarges target keys based on fingertip proximity to improve selection accuracy.

A polyimide-based film reduces reflection mura and light distortion in flexible display panels.

Integrating a light source into the seal structure resolves visibility issues in low light without enlarging wearable devices.

Infrared synchronization links active stylus inputs to capacitive touch arrays, resolving timing delays and improving detection accuracy.

A configurable touch-panel interface uses switch capacitor networks to operate receivers in multiple sensing modes for diverse panel designs.

A data processing device reorders job macros on operation screens using configurable rule sets to organize identification information.

A transparent depression sensor detects glass deformation to distinguish finger hover operations from water droplets, ensuring accurate coordinate validation.

Interpolation between discrete sensor positions calculates the exact end of the display region, resolving missed detections during sliding movements.

A guide line snapping mechanism calculates perpendicular distances to identify candidate lines within a tolerance range.

A stylus uses a flexible printed circuit to transmit pressure sensing signals between the strain gauge and main circuit board.

A driving module outputs reference signals of different polarities to adjacent lines.

A flexible touch sensor uses a patterned conductive layer on an insulating substrate to enable seamless integration into diverse product designs.

Extending touch electrode length relative to spacing increases electrode density, resolving the trade-off between measurement precision and device complexity.

A display unit segments function settings into separate areas to track changes and revert values.

Segmented conductive lines maintain consistent positional relations relative to pixel lines, ensuring uniform voltage distribution across the common electrode.

Replacing mechanical ratchets, this magnetic wheel uses a deforming sheet and strain sensor to detect rotation without wear-prone parts.

A display control unit dynamically emphasizes relevant operation items based on device status to simplify user interface navigation.

Segmented directional indicators align object start points with target locations to resolve the trade-off between rotation precision and operational efficiency.

Parallel pressure sensing and multi-function electrode layers detect touch pressure through variable capacitance gaps, resolving device complexity constraints.

Segmented conductive wires in a touch electrode release static charges, preventing open circuits caused by electrostatic discharge.

Gradient shaft sections restrict sideward movement of the scroll wheel, resolving bracket gap issues.

Phase encoding eliminates time intervals between code signals, enabling continuous active stylus transmission and higher data rates.

Segmenting the interface into layered pages resolves contradictions between information completeness and editing area accessibility.

Slits in outside wiring lines reduce conductive path widths, equalizing resistance values across varying line lengths to eliminate signal distortion.

A light pattern recognition module projects and detects reflected patterns through a display layer for user authentication.

A force sensor assembly combines pressure decay and gap distance sensors to detect touch interface force.

A position pointer uses a signal supply controlling circuit to selectively switch between high and low signal levels for capacitive sensing.

Non-transparent bridge lines with controlled line width improve touch sensitivity while maintaining aperture ratio.

A data storage device directly accesses computer memory to execute commands independently.

Segmenting the keyboard into individual key regions resolves the contradiction between ease of operation and adaptability, enabling one-finger size adjustments.

Segmenting potential input symbols into categorized lists reduces scrolling distance and selection time for engineers using small displays.

Sequential illumination separates shadow interference from the pointing element, enabling accurate position detection with a single camera.

A compensation pattern at the dam lower boundary manages residual films on touch display panels.

A conductive metallic micro-mesh minimizes moiré patterns through randomized intersection points and varied line spacing.

Terminal detects screen touches using scenario-specific abnormal-shape detection parameters to distinguish accidental inputs from intentional operations.

Dynamic threshold calibration based on proximity data resolves ink leakage from sensor hysteresis and reduces battery drain during idle states.

Dual-frequency voltage generation and synchronous demodulation resolve phantom press detection errors in multitouch capacitive devices.

An optical layer with a distinct refractive index coats the transparent electrode to manage light reflection across the panel surface.

Integrated electrodes measure resistance to determine temperature and apply heat, resolving accuracy issues from distant detectors.

Controller differentiates setting item display manners based on service installation status to simplify user interface navigation.

Differential capacitance measurement between adjacent rows and columns determines object location within a sensor array.

A single-layered touch sensor structure simplifies manufacturing by merging X and Y electrode lines into one layer.

Processor detects skin contact to execute erasure functions, resolving precision and ease of operation trade-offs in graphical user interfaces.

A touch device uses stacked insulating layers to electrically isolate sensing electrodes from display components.