Input/Output Processes For Data Processing TRIZ Cases

Using divided electrodes and a high-impedance reference, this case detects touch from mains-frequency signals to cut circuit cost and power use.

A piezoelectric film sensor separates frequency-band signals to detect touch position and pressing force at the same time with high sensitivity.

Intersecting branch electrodes with controlled gaps raise mutual capacitance at panel edges, improving touch linearity and position accuracy.

Uneven infrared emitter spacing improves touch accuracy in large displays while cutting sensor count and overall touch assembly cost.

Uses hierarchy proximity, navigation history, and permission filtering to surface more relevant documents in collaboration platforms.

Capacitive touch maps and a machine learning model estimate passive stylus tilt and rotation, enabling more precise pencil-like input.

Capacitance thresholding around the touch region helps reject slow palm approach and preserve intended pointer position input.

Offset first and second electrodes create exhaust gaps that release bubbles, improve adhesion, and reduce stress-driven corrosion.

A unified printer connect display shows compatibility, registration, and login status, reducing manual service checks across devices.

Gesture rules use touch start position, speed, and press duration to shift full pages or icon rows and columns for faster one-handed finding.

Equipotential transparent guarding suppresses parasitic capacitance, enabling capacitive gesture and proximity sensing at centimeter range.

A stepped block structure with two sub-block sizes lowers edge slope and metal residue, reducing touch line short circuits and improving yield.

Patient-specific finger rests attach to standard mouse buttons to restore comfortable, reliable clicking for users with hand deformities.

Approach detection and a separate power signal let the pen update communication mode before pen-down, reducing session delay.

Varying touch wire width with climb height over display layers helps prevent shorts and disconnections while preserving touch performance.

Different electrode subsets use temperature-stable voltage ratios to prevent ghost touches and keep capacitive object detection accurate in hot or cold conditions.

An overlapped inorganic dielectric and organic protective layer blocks water vapor and relieves stress to prevent FMLOC touch-layer peeling.

Cell-level phase offset calibration compensates signal delays across a capacitive touch array to improve detection uniformity and noise immunity.

A conductive blocking pattern between display and touch lines cuts parasitic capacitance, improving touch sensitivity and lowering power use.

Rectangular electrode grouping and coordinate calculation improve proximity position accuracy on small touch panels with fewer electrodes.

Dynamic spacing and width changes between page modules turn uniform page sliding into more engaging visual feedback on electronic displays.

Strategically placed GND lines inside the touch panel dissipate electrostatic discharge, reducing signal interference and component damage.

Shared metal mesh holes span adjacent same-color sub-pixels to keep lines away from openings, reducing cross-color and easing OLED panel fabrication.

Consolidated client location entry organized by FEIN cuts duplicate updates, sync errors, and onboarding delays across multiple software services.

Preselected user profile parameters are sent to a server to generate identifying icon images, cutting manual icon registration time and effort.

Automatic movement detector objects and dragger handles let avatars move graphical objects along defined paths with less manual coding.

Graphical elements are repositioned and resized to match touch grid boundaries, reducing selection errors on low-resolution touchscreens.

Template-based DSL modules turn TV menu ads into interactive media objects, cutting manual creation time while enabling dynamic content updates.

Single and double touch routing sections along the display edge cut bezel area while reducing coupling noise and channel resistance differences.

Constant-potential second signal lines shield touch and display routing to cut crosstalk and prevent abnormal display in thin transparent panels.

A black matrix over touch electrodes blocks reflected light and color mixing, enabling thinner polarizer-free OLED displays.

Refractive-index layering and anti-reflection structures improve display light output while limiting extinction and added process complexity.

Compressed sensing detects sparse touch events first, then activates TDM readout only in event areas to cut touch panel power use.

Multi-app touch-and-drag gestures speed split-screen activation on terminal interfaces, reducing cumbersome steps across home and multitask views.

By routing touch lines beneath planarization and bank layers, this case shrinks bezel area while preserving touch sensing and display efficiency.

Split touch regions let users run settings with a quick tap or a slower confirm action, cutting input time while reducing accidental commands.

Different sub-sensing lines on opposite sides create differential capacitance, improving touch position accuracy when driving lines share a channel.

Different gap sizes and an integrated antireflection layer help under-panel sensor displays maintain luminance and optical uniformity.

Visual guides, history navigation, and shadow controls make 3D object placement and illumination editing more intuitive and precise.

Different pixel and touch electrode densities by sensor region preserve transmittance and image quality in full-screen displays.

Balancing shielding coverage and distribution holes helps this touch panel limit warpage while preserving anti-interference performance.

Higher center-region sensor sensitivity compensates for curved-panel distance variation, improving hover touch accuracy across the display.

Integrated light detection lets the panel discard or compensate light-corrupted touch results and switch to a less light-sensitive mode.

By removing virtual touch wiring and rerouting data lines, this panel layout raises aperture rate, improves transmittance, and reduces uneven display.

A handheld touchscreen uses historical opening scenes to auto-apply app interface position and size, reducing repetitive setup steps.

Composite trapezoidal sensing elements detect narrow pen touches with better vertical coordinate accuracy while limiting coplanar capacitance and SNR loss.

Capacitance pattern analysis detects water on a touchscreen, triggers pre-water mode, and reduces false touch input in wet conditions.

A branched base voltage line lets touch routing lines pass between segments, cutting overlap, parasitic capacitance, and bezel area.

Using shared dam materials and a shortened touch organic layer, this case cuts display masks while preventing organic overflow.

A three-layer refraction pattern redirects LED light forward, boosting front luminance while protecting the shaped optical layer from etching.