Input/Output Processes For Data Processing TRIZ Cases

This case uses base and auxiliary units with sensors to detect relative movement, expanding input options without one complex unit.

This case uses dynamic touch and display electrode voltages to preserve thin in-cell integration while improving touch sensitivity.

Boundary dummy patterns and variable compensation contacts support electrode connections for flexible pen sensing without added thickness.

The control circuit repositions the menu bar from touch coordinates, simplifying operations on large displays during conferences.

Embedded first and second electrode fingers improve capacitance change while reducing resistance for clearer touch-chip recognition.

A floating electrode in the isolation gap reduces temperature-sensitive capacitance shifts for stable touch detection.

A mesh-patterned sensing layer overlaps light-emitting regions to preserve sensing, improve visibility, and reduce external reflectance.

A shared sensor layer switches between touch and pen modes, using differential sensing to preserve thin, lightweight devices.

A touch-panel knob uses segmented ring sensing pads to improve rotation resolution while preserving glass strength and lowering complexity.

A winged bracket flexes under stylus-tip pressure, while an integrated strain gauge measures force without consuming extra housing space.

This display substrate separates touch drive and sensing lines, using spacing and optional shield lines to reduce capacitance by up to 72%.

Separate touch regions switch between mutual and self-capacitance modes to limit RC load, sensing time, and power use.

Non-linear circuitry helps a low-power stylus stand apart from finger input.

This touch sensor uses controlled substrate absorbance to limit light transmission and scattering while preserving white-display brightness.

This case uses metal grid touch electrodes and layered grounding wires to preserve signal integrity in lightweight, flexible displays.

This case uses dual-side prop control areas and sliding selection to preview effects without obscuring other shooting controls.

Wire passage holes connect touch wires to metal leads, reducing border size and short-circuit risk in display panels.

Parameter feedback adjusts signal intensity for touch assemblies, balancing reliable touch information with lower power consumption.

Image, depth, and motion sensing coordinate with AR display control for precise hand tracking and real-time content modulation.

This touch panel places a low-resistance bridge over the spacer to connect sensing electrodes without blocking the light-emitting area.

A sensor controller alternates active-pen and passive-pointer scans, comparing positions to suppress false bezel detections.

Insulated dummy patterns stabilize dense metal-wire etching, limiting side shifts, residue, and leakage between touch-panel wires.

This case uses inner and outer electrodes with signal adjustment to preserve cartridge sealing against dust and moisture.

A concave metal sublayer and inorganic-covered groove disrupt moisture paths around the transmission area, improving panel reliability.

This array substrate aligns touch-line access points by sub-pixel color to equalize RC loading and improve display uniformity.

Predefined and custom reason codes make task status changes easier to comment, track, and report consistently.

This case shows how an electronic pen uses capacitance differences to provide tilt orientation, pressure, and functional data.

An optical gap layer combines touch sensing and light redirection to limit viewing angles without a bulky stacked structure.

A shortcut creator simplifies folder selection for scanned and printed data, reducing manual destination and source specification.

Pressure thresholds filter accidental touches for more accurate touch-keyboard input.

A corrected icon position calculation unifies touch behavior during rearrangement, reducing discomfort and operation errors.

A multilayer trace structure connects sensing electrodes through conductive and bridge patterns to limit dead space and resistance.

This case uses edge cues and timed UI transformations to signal the next function before executing it.

This case uses joining-edge distances and alignment bin maps to automate accurate object placement across perspectives.

This case uses partitioned light-emitting units and insulated virtual electrodes to reduce carrier crosstalk and improve touch performance.

Capacitive edge sensing enables squeeze gestures without added strain gauges.

Unique signals distinguish users, and priority selection generates touch coordinates during simultaneous input.

This case uses layered bridge routing around through-holes to avoid encapsulation fluctuations and preserve touch connection integrity.

The processor uses event logs and registry data to restart touchscreens and restore sensor-display correspondence after startup errors.

Directional electrode groups and trace routing improve touch precision while managing sensor-layer complexity.

A shared electrode and trace-line structure switches sensing modes to measure touch and pen coordinates in one sensor layer.

This case varies touch-line widths by display region to equalize reflected light and reduce bright-dark optical zones.

A surrounding metal layer and wider optical hole protect the transmission area while preserving display functionality.

Sequence-aware compressed frames detect missing mouse packets and estimate cursor positions, reducing lag in high-frequency wireless input.

An annular light-shielding layer uses arrayed holes to display adjustable-color logos while protecting touch-layer light shielding.

This case uses curved, asymmetric metal lines in touch-panel mesh electrodes to reduce moiré and starburst without sacrificing visibility.

Synchronized block driving separates real and ghost touches while helping improve yield and reduce manufacturing costs in large displays.

This case uses inflection-area empty spaces and a rigid second layer to absorb repeated-folding stress and protect display integrity.

Height sensing switches touch and contactless controls to reduce display clutter.

Parallax or laser ranging sets each-eye AR image depth to the anchor distance, improving legibility and vergence alignment.