Input/Output Processes For Data Processing TRIZ Cases

By sharing a touch layer between capacitive electrodes and electromagnetic coils, the panel stays thinner and easier to manufacture.

Rotating square-wave output across gate driver levels balances touch-period load and slows premature aging in in-cell touch displays.

By distinguishing finger and palm contacts in predefined regions, the controller prevents false touchpad commands and reports touch events correctly.

Implicit function handles transfer edits from simple semantic controls to high-resolution 3D models while preserving details and avoiding distortion.

Differential piezoelectric readout cancels common-mode electric-field noise, letting touch panels distinguish light taps from heavy presses.

Hierarchical main, sub, and set tabs help users find many menu items on small portable screens with faster, more intuitive touch navigation.

When a selected file preview hides its own icon, this layout shows an enlarged image plus a corresponding image to keep file information visible.

A child window can extend across parallel app windows with adjustable size and position, improving multitasking clarity and touch operability.

A shared electrode layout adds proximity detection to a touch sensor without separate sensor structures, simplifying display input design.

Feedback voltage clamping and correction prevent display pulse interference from saturating touch sensing circuits and preserve signal fidelity.

A movable camera selector lets users trigger a second camera by choosing a first camera and moving within a distance threshold for easier capture.

A shared mirror assembly and light path capture return light from the eye, enabling compact eye tracking without separate alignment hardware.

Metal meshes are routed outside pixel openings and linked through via holes to cut capacitance load while avoiding cross-color and aperture loss.

ID-coded image configuration lets cameras send images directly to displays, cutting motherboard processing, power use, and hardware complexity.

Dividing the touch layer into switchable islands cuts coupling noise and improves active pen accuracy on large touch panels.

Differential electrode switching boosts capacitive touch signal-to-noise ratio and response time without larger or costlier electronics.

Dye- and pigment-based refractive layers cut external light reflection while limiting layer contamination to improve display visibility.

A groove pattern on the encapsulation substrate blocks resin leakage from display holes, preventing pixel defects while preserving module exposure.

Side-emitting light sources and aligned capacitive sensors illuminate appliance icons evenly while simplifying assembly and controller layout.

Cathodes are multiplexed as touch electrodes and leads enter the display region, cutting bezel size while simplifying touch-display manufacturing.

Expanded app icons show controls, account details, and unread messages directly, cutting steps needed to access key functions.

User-adjustable touch thresholds improve pen, fingertip, and palm identification by adapting to touch size differences and user variation.

A host-controlled mouse adjusts height, tilt, and cant to fit different grips, reducing hand and wrist strain during prolonged use.

When touch and display driving frequencies coincide, the touch IC shifts to a different frequency to suppress harmonic noise and cut power use.

Protective layers cover touch-layer signal lines in the spacing region to block polarizer iodine corrosion and prevent shorts in humid heat.

Varying X-Y line overlap in non-square panels equalizes capacitance, reducing touch noise and improving sensing accuracy.

Pulse-shaped row signals with varying frequencies and reverse waveforms cut EMI while preserving touch detection performance.

Frequently typed words are detected and mapped to shorter personalized chords, reducing selection effort and speeding text entry.

A rib-and-perimeter-wall labyrinth seal keeps the appliance knob axially fixed, blocks fluid ingress, and supports easy cleaning.

By contacting touch metal lines with the black matrix, this panel layout cuts OLED L-Decay and color shift while simplifying layer structure.

A mesh shield electrode over power lines cuts parasitic capacitance and EMI noise, improving touch sensor sensitivity and detection reliability.

Insulated overlap between touch and source-drain wiring uses vias and isolation dams to maintain connectivity while reducing layer interference.

When an imaging device sends no state change after a control command, timeout-based GUI reset or error display keeps controls aligned.

Organic protective pad layers in an OLED touch stack cut voltage-signal interference, improve bending, and protect conductive layers during etching.

Trigger-based screen switching gives doctors and nurses tailored patient views while preserving multi-subject monitoring on one display.

Programmable microfluidic protrusions turn stretchable screens into dynamic braille displays with tactile feedback for digital content.

A connection structure bridges split common voltage loop sections to keep dummy signal lines from floating and prevent bright line defects.

Serially connected loop portions let a foldable induction sensor use fewer drive channels while preventing conductor degradation and saving power.

A bridge line reconnects split touch electrodes at notch regions, while a shielding line blocks interference and preserves touch signal quality.

Expanded detecting electrode regions offset unequal drive electrode widths, keeping capacitance uniform for stable noise immunity and touch accuracy.

Layered oxide semiconductors with a metal barrier help pixel drivers balance high mobility and wide driving range for reliable image display.

Tabbed profile navigation on large-screen displays improves media browsing and content organization without adding complex interaction steps.

Reverse-phase peripheral electrodes and dynamic slot allocation help active pens keep position detection accurate under tilt and hand contact.

Overlapping detection lines enable current-based screening of scratched or corroded touch-panel lines before shipment, improving reliability.

Closed slots in the adhesive layer and elastic support improve touchpad vertical haptics while cutting assembly complexity, cost, and thickness.

Through holes in the sensor substrate let ultrasonic fingerprint modules work behind the display while preserving full-area position detection.

Region-specific electrode area, spacing, and drive voltage keep hover touch sensing uniform across curved display center and edge regions.

Triggered in-place expansion on list pages reveals genre-specific key content without a landing-page jump, reducing wait time and resource use.

A stacked electrode and ground layout improves shielding for BGA-based touchpads without adding layers, preserving touch sensitivity and lowering cost.

Fusing tip-camera images with IMU data improves 6-DoF stylus pose accuracy for precise AR and VR interaction.