Input/Output Processes For Data Processing TRIZ Cases

Partitioned substrate regions confine drive and sense lines to shorten electrical paths, reducing resistance and signal interference in large screens.

A compartmentalized image editing system displays enhancements as selectable icons for intuitive user interaction.

A touch sensor controller segments detection phases to isolate signal effects between lines.

Electronic device sensing regions detect triggering duration to switch operational states without passwords.

Distinct boundary shapes differentiate touch electrodes, routing lines, and dummy electrodes to simplify repair processes in integrated touch display devices.

A touch display device uses driving transistors to connect multiple electrodes to a single touch line.

A capacitive control surface detects objects on a neutral peripheral area by exploiting the edge effect to trigger device functions.

A touch panel detection system segments signals into contact regions to remove noise areas while preserving effective input sensitivity.

Four sensing resistors share a local area to experience uniform temperature, reducing thermal drift errors and improving force measurement accuracy.

Gradual touch driving signal amplitude variation reshapes electromagnetic energy distribution across specific frequency bands.

A touch mouse detects finger gestures and generates key output signals to a host computer.

A touch integrated display device positions driving and sensing electrodes on opposite sides of a liquid crystal layer to minimize thickness.

Concurrent filtering with distinct bandwidths separates slow deliberate presses from quick strong taps, resolving latency versus precision trade-offs.

Electronic device segments predictive words into probability groups for display on a touch screen.

A pixel array substrate integrates a bridge portion to route touch signal lines across connection patterns.

A conductive film with a random mesh pattern reduces moire and noise across varying display resolutions without requiring custom designs.

Variable resistance conductive bridges connect adjacent touch electrodes to balance mutual capacitance, correcting peripheral wiring-induced signal imbalance.

Speed buttons replace cumbersome menu navigation by allowing users to drag operations between elements, reducing time spent defining links in large models.

A conductive shielding sheet placed above connecting wires reduces capacitive coupling interference, improving touch sensing accuracy in in-cell displays.

A graft type silicone polymer dispersant stabilizes pigment distribution in liquid media through specific molecular architecture.

A touch control chip switches driving and sensing channels to collect signals in two phases.

A display unit shows arrangeable areas for software keys while a relocation unit moves selected regions to user-defined destinations.

Software system generates custom process diagrams to enable external benchmarking against industry best practices.

Image viewer application prevents focus shifts onto textual input elements during mobile browser zoom operations.

Segmenting functions across multiple pages reduces cognitive load when navigating extensive settings in multifunction peripherals.

Selective electrode stabilization cuts signal processing delay, increasing scan speed and reducing energy consumption in array column sensing.

A shooting interface displays multiple camera controls on a screen to enable simultaneous focusing on different objects.

Serpentine and angled touch signal lines minimize visibility of conductive traces, resolving image quality degradation in touch-enabled displays.

A watch user interface adjusts layout and input device functions based on detected orientation changes.

Detects left or right hand orientation to reposition interface controls, resolving usability conflicts for ambidextrous users.

A DMA engine manages data transfers between non-uniform memory architecture nodes using end of transfer messages and counters.

A selection rectangle frame rotates over a displayed image to enable intuitive cropping operations on portable devices.

Merging touch panel electrodes onto the second substrate eliminates separate substrates and simplifies mounting.

A DMA controller uses a prioritizer to dynamically adjust channel priorities based on real-time system state.

Segmented sensors in a single housing resolve the trade-off between interaction versatility and device complexity for electronic devices.

Remote server processes area scans to generate digital representations, enabling users to place and share interactive tags across devices.

A capacitor structure uses substrates and a dielectric layer with different Poisson ratios to maintain constant capacitance under external strain.

Three electrodes detect the pressed state in the peripheral region by measuring capacitance changes, improving detection accuracy.

Differential sensing subtracts digital detection vectors from adjacent electrodes to eliminate noise interference and improve measurement precision.

A capacitance sensor uses independent drive electrode control to maintain detection electrodes at a reference voltage.

A flexible proximity sensor merges touch and force electrodes on one substrate to detect pressure via capacitance changes.

Orthogonal code multiplexing drives multiple conductors simultaneously, reducing cross-point electrostatic coupling detection time while maintaining accuracy.

A pressure activated accurate pointing mechanism maps sensor coordinates to display screen coordinates using dynamic threshold detection.

A capacitive sensor detects a conductive protective liner on a mobile device display to generate an alignment guide for the user.

Laminating dual-surface conductive patterns with different aperture ratios reduces diffraction strength while maintaining high transmittance and uniformity.

Orthogonal excitation matrices decode mutual capacitance signals, eliminating 90-degree panel rotation to reduce power consumption and silicon die area.

A pressure sensing module uses a diagonal Wheatstone bridge to detect touch.

Tracking previous palm input locations invalidates unintended signals, stabilizing output and reducing erratic false identifications.

A shielding signal line isolates touch electrode lines within a display panel non-display region to reduce coupling effects.

A three-dimensional sensing panel uses a pressure sensing coating layer directly on the touch module to integrate force detection.