Input/Output Processes For Data Processing TRIZ Cases

A draggable screen divider lets multiple app execution screens stay visible and resizable, reducing disruptive switching during multitasking.

Switch-controlled gate outputs toggle during touch sensing while holding stable display voltages, enabling load-free in-cell touch driving.

Automatic capture of displayed content into notes cuts redundant touch inputs, lowering cognitive burden, interaction time, and battery use.

Display information is fed to the touch circuit to predict periodic noise and tune sensing filters for more reliable touch input.

A memory-side format converter clips, scales, and truncates data so GPUs and NPUs can exchange quantized data directly with less CPU burden.

Segmented effect areas are repositioned into preset forms and blended with background images to create body-linked video effects with richer interaction.

Pad-edge insulation with openings protects adjacent display pads while keeping central contact areas exposed for durable signal transfer.

A tapered cover layer aligned with the substrate and tuned touch-layer printing reduces edge steps, spots, and smudges in displays.

Tap, hold, slide, and lift gestures lock or unlock media capture faster than repeated key presses, reducing user time and device energy.

Switches virtual objects between device-locked and physical-world-locked modes to keep positioning consistent during device movement.

Grooves with buffer and encapsulation layers stabilize coupling capacitance and prevent touch electrode breakage during folding and rolling.

Simultaneous multi-area drive signals with different frequencies and phases cut touch detection time and power use in standby mode.

Non-overlapping conductive grid edges cut overlap capacitance and charging time, improving touch sensitivity and accuracy in display panels.

A protruded sensing stack on a display substrate preserves visible light signal strength at deflection angles while combining display and communication.

Proximity-shared sensor IDs let a stylus pair with the correct position detector and avoid unintended connections in crowded use.

A dual-electrode capacitance layout distinguishes finger touch from moisture by comparing distance and signal changes to cut false positives.

Lookup-table peak analysis improves pen coordinate accuracy on a display sensor layer without adding a separate digitizer.

A proxy avatar uses requester attributes to deliver context-aware virtual interactions while reducing direct user involvement.

A conductive shielding layer between display lines and OLED emitters cuts coupling noise, stabilizes cathode voltage, and supports active stylus use.

Solid outside electrodes and mesh inside electrodes shrink bezel width while preserving active pen position detection in electronic equipment.

Intersecting bridge electrodes and via connections cut touch-panel overlap capacitance, improve SNR, and lower short-circuit risk.

A dual-mode sensor layer uses integrated auxiliary electrodes and capacitive coupling to detect pen input without adding a separate digitizer.

Segmented touch insulating layers with trenches and an undercut shape protect encapsulation, limit pixel shrinkage, and preserve OLED front efficiency.

Automatic display-to-tablet aspect ratio mapping cuts manual setup time and simplifies pen input alignment across connected devices.

Selective button movement lets users rearrange permitted app icons while fixed icons preserve layout stability and access control.

Routing touch leads to opposite binding regions cuts RC loading, reducing signal attenuation and improving active stylus SNR in foldable OLED panels.

Optical adjustment and spaced protective layers cut OLED panel thickness and brightness loss while preventing touch-cathode interference.

An in-line scanner verifies printed watermarks or patterns automatically, improving secure document handling and pay-for-print billing accuracy.

High-level commands in contiguous Modbus register buffers cut wire traffic, simplify device management, and add secure authenticated responses.

A force-sensing stylus uses a geometrically deflecting writing spring to recreate paper-like tactile feedback for more precise digital writing.

MXene replaces metal powder and copper in the functional layer to maintain EMI shielding while reducing thickness and improving foldability.

A blocking electrode in the display periphery suppresses sensor-line coupling, improving edge touch coordinate accuracy.

Alternating dielectric and metal layers cut ambient glare in AMOLED panels while reducing thickness and preserving folding flexibility.

A slim touch-sensitive LED tag along the server chassis adds interactive status and ID display without blocking airflow or raising power use.

By removing adhesive layers and the polarizer, this OLED panel stack cuts thickness and improves light extraction for lighter flexible displays.

Using SOMO-forming organic-metal layers and partition walls, this case lowers display driving voltage without alkali metal contamination or crosstalk.

Frequency-division touch sensing assigns electrode-specific signals to avoid display noise, improving input stability and lowering power use.

A layered electrode structure integrates touch and display on one substrate, reducing device size while improving signal transmission and touch efficacy.

Switching touch signal amplitudes and electrode connections lets one display sense contact, hover pointing, and gestures with lower power.

A touch-triggered threshold shift suppresses false pen detection through the user's body while preserving accurate capacitive position sensing.

Edge-mounted diffusive scattering guides light above the touch surface, cutting alignment complexity, signal loss, and component count.

A release layer and multilayer pad electrode improve pad-region separation during laser lift-off, reducing defects in flexible touch displays.

Signal profile analysis on capacitance sensor arrays separates real touches from liquid-induced false inputs while avoiding extra power use.

Gaussian signal correlation helps touchscreens detect true hover events with better position accuracy and fewer false positives from noise.

Precise partial object erasing and adaptive drawing palettes cut repetitive UI inputs, improving control while conserving power.

Multi-level wiring within first and second dam structures frees pad space around on-cell touch displays, enabling narrower bezels and wider display areas.

Segmented touch electrodes and voltage-controlled guard electrodes cut sensing interference, improving input accuracy and responsiveness.

A multi-direction electrode and sensing-line layout improves touch sensitivity and electrical reliability in display input sensing.

A synchronized shield electrode between the display and touch panels blocks display noise and improves mutual-capacitance touch detection.

Missing pen strokes beyond the screen are recovered by detecting off-screen motion and adjusting the display layout to show the full stroke.