Input/Output Processes For Data Processing TRIZ Cases

A virtual magnifying glass enables precise cursor targeting on touch interfaces by linking finger movement to screen coordinates.

Segmented windows slide onto a display stage to resolve the trade-off between limited screen area and ease of operation.

A sensing structure uses a connecting pattern with varying line widths to join the sensing unit and periphery circuit.

A touch sensor integrates a strain gauge between electrodes on the same layer to detect pressure.

Segmented cover glass extends static discharge paths to protect control circuits, reducing manufacturing costs by limiting glass coverage area.

Dual pivot shafts segment the sensor board rotation, adjusting depressing load across regions to improve click feeling near the keyboard.

A scroll wheel uses a stator to apply variable electromagnetic force for dynamic haptic feedback.

Maps screen UI controls to keyboard areas matching their spatial positions, eliminating sequential navigation delays for visually impaired users.

A stylus design couples a single stand-alone circuit to head and tail portions for synchronized signal transmission.

A touch panel uses a destructive interference unit to reduce ambient light reflection without adding polarizing plates.

A flexure bearing in the cover glass allows structural compliance while maintaining attachment contact.

Segmenting drive and sense electrodes with a dielectric layer maintains display optical transmittance while improving touch detection accuracy.

A one-click sequential identifier cycles through options without menus.

A transparent electrode pattern combines metal nanowires and dry-etchable TCO layers to form separated conductive structures.

A 3D positioning widget uses axis handles anchored to a bounding box for intuitive object manipulation in virtual space.

Integrating a trackball into the keyboard housing resolves the trade-off between improved navigation control and increased device complexity.

Merging second sensors into parallel blocks reduces signal lines, minimizing noise interference and short-circuit risks for accurate multi-touch detection.

A scrolling list method ignores input during a protected period when specific elements are displayed.

A touch electrode structure connects electrodes end to end in a single layer to form a continuous polygonal line.

A touch screen detects pressure intensity to differentiate user interface actions without adding hardware complexity.

Capacitive sensing areas distinguish multiple button presses using two pins, eliminating the pin count and memory overhead of one-to-one configurations.

Thumbnail segmentation resolves small display limitations by enabling intuitive imaging range specification without complex interfaces.

Scores menu items using frequency and confidence metrics, then prunes low-ranking options to reduce interface complexity while preserving core functionality.

A display device extends pause periods using preset setting units to maintain stable touch position reporting rates during operation.

A cylindrical auxiliary input device uses conductors on its fixing body to enable touch screen detection and function execution.

A processing system compares mutual and absolute capacitive measurements to detect input objects near side surfaces.

Contact intensity detection on a touch-sensitive surface triggers application previews, reducing cognitive burden and conserving battery power.

A capacitance input system uses a resonant stylus and external antenna loop to detect touch signals without auxiliary panels.

A touch panel design segments detection electrodes into main and sub-portions connected via multi-layer lines to capture signals from adjacent sensor areas.

A touch panel processor monitors ESD protection circuit load changes to detect abnormal conditions during normal operation.

Edge crossing detection derives absolute coordinates from single-touch inputs, enabling multi-touch gesture recognition without hardware replacement.

A radial menu displays selectable actions around an icon on a touchscreen interface.

A transparent conductive member senses user deformation to validate touch inputs on display arrays.

Self-capacitance electrodes arranged along gate lines isolate touch sensing signals from display data voltages.

A graphical user interface system snaps object features during a single dragging operation.

Reflection patterns between main lines manage light reflection to reduce sensing line visibility while preserving electrical connectivity.

Applying orthogonal touch driving signals to adjacent electrodes enables the touch circuit to differentiate actual touches from ghost touches.

Placing a touch sensor outside the display area resolves finger obscuration while avoiding increased device size and cost.

A touch-enabled in-vehicle display unit sets split areas using predetermined ratios to manage layout configurations.

Raised nubs on the elastic layer align with through holes to ensure uniform deflection, resolving non-uniform force determination in capacitive input devices.

Adjusts touch capacitance data via dynamic compensation operations based on configured step values.

An arc menu index arranges characters along a curved border line to align with natural finger movement patterns.

A touch sensor driving circuit time-divides the operating period into sensing and noise measurement portions to reduce current consumption.

An optical touch device pairs sensors into modules to filter unreliable coordinate data.

Integrating pen signal reception into display electrodes eliminates separate sensors, reducing manufacturing complexity while maintaining detection accuracy.

Opposite polarity voltage applied to adjacent transmit electrodes neutralizes parasitic capacitance charges, enhancing touch position detection accuracy.

A touch panel uses layered sensing patterns with overlap structures in a non-view area to simplify fabrication.

A touch pad module uses a noise reducing film with an elastic arm structure to cover the elastomer.

Divides touchscreens into pressure-based sub-regions to resize icons, reducing single-hand operation difficulty.