Input/Output Processes For Data Processing TRIZ Cases

An organic film covers the inorganic film edge in the bezel to block heat and crack propagation while enabling a narrower display border.

Dynamic touch suppression uses event features and device context to separate intended input from accidental contact across grounding conditions.

Corner leads placed fully in the bending region avoid boundary overlap, reducing touch wire cracks and improving flexible display yield.

Dual scanning ranges capture both contact and hover pen signals on a panel, improving coordinate accuracy despite signal spreading.

Timed first and second electrode signals let a stylus send pressure values to an electronic device without Bluetooth or added circuitry.

Dynamic layout switching lets users move from a single media stream to multi-content browsing without adding interface complexity.

Preset hover gestures let a stylus control opacity, width, scatter, spreading, and color fill to create ink wash brush effects.

A shared touch module routes sub-window input to the main or external platform, avoiding channel switching in multi-system control.

Synchronizing touch driving with display control signals enables differential processing that cancels display noise and improves touch sensitivity.

Topic-group pages organize rich online media and show posts from members and non-members to make relevant information easier to find.

A patterned touch sensor switches between mutual and self sensing to block false palm signals and limit capacitance growth during pen input.

Separating touch and second signal lines into different layers cuts array substrate load and overlap in large in-cell touch screens.

Guard, ground, and electromagnetic attenuating lines in the display border suppress sensing-signal EMI and improve operating stability.

Non-overlapping cuts in stacked mesh sensor layers reduce reflection differences and keep touch patterns visually hidden on displays.

Real-time AR overlays turn detected device signals into location cues, helping responders find people, equipment, and safe paths in low visibility.

A time-threshold counting scheme filters unintended taps and hides rarely used buttons to keep screen customization aligned with user intent.

Endpoint-based pull-down detection lets a touchscreen terminal open different full-width interfaces in one gesture, cutting switching steps.

Code-patterned display and light sensing pixels improve electronic pen coordinate detection while avoiding separate sensing hardware.

Covering encapsulation top and side faces with a touch insulating layer prevents OLED panel damage during touch layer formation.

Varying touch-line cross sections and conductive-layer through holes balance resistance and capacitance for more uniform touch sensing.

Signal-strength thresholds in a TDDI circuit distinguish stylus contact from hover, avoiding false breaks and keeping writing trajectories stable.

While the camera preview scans optical codes, contextual notifications appear only when detection criteria are met, reducing user effort and power use.

A wireless stylus switches modes to send control and position signals for page turning, cursor control, and erasure at a distance.

Collapsible panels and role-based menu sections help employees reach relevant workplace tools quickly without cluttered navigation.

Complementary drive signals and differential sensing raise touch-panel SNR by canceling display noise and stabilizing touch detection.

Noise-aware touch driving switches signal quantity by sensing frame to balance touch accuracy, reliability, and display noise.

Dual error correction encoding helps a keyboard maintain accurate key transmission over 1-wire links during transient power fluctuations.

Layered line routing with via-electrode connections shrinks display bezels and cuts parasitic capacitance to reduce RC delay and image load.

Grounded and insulated conductive layers on a flexible circuit stabilize parasitic capacitance, prevent ghost touches, and detect delamination.

Stored touch position, timing, and duration are overlaid on the screen to reproduce game operations clearly for video viewers.

A multiplexer lets multiple analog front ends share one ADC, while mode-based sampling and resolution cut sensing circuit area and power use.

Wide-band code correlation aligns stylus and touch-sensor timing to cut noise and improve transmission accuracy.

Separate transmitting and receiving coils cut reporting time and improve stylus charging, touch sensitivity, and position accuracy.

A black matrix over overlapping color conversion areas with an inward auxiliary electrode cuts light leakage, stabilizes viewing angles, and reduces residues.

Segmented sensor electrodes and an insulating layer improve touch sensitivity while limiting light loss and external reflectance.

An overlapping bridge-electrode layout lets the touch electrode wrap the insulation layer during bending, reducing stress concentration and cracking.

Edge and center touch electrodes use different routing and compensation to offset protective-film capacitance variation and keep sensing reliable.

Staggered touch and electromagnetic sensing windows prevent signal interference and preserve pen and finger input sensitivity.

Visual frames, color cues, and translucent area overlays make dragged window placement across multiple displays easier to recognize.

During swipe or flick movement, high-load animated content is replaced with a fixed image to keep display tracking smooth and stable.

Long-press context menus let users add or delete screen items without entering a full customization screen, cutting extra steps.

Drag-triggered display icons let users place or split windows across multiple screens with simpler destination and area selection.

Baseline images captured during gate-drive interference let embedded touchscreens detect touches accurately without sacrificing report rate.

Time-shared analog front ends let one touch circuit serve multiple terminals, cutting TIC size and cost without losing detection performance.

IMU-based touch stabilization adjusts touch zones and refresh rate to cut unintended inputs while balancing responsiveness and power use.

Intermediate power rails shift touch sensor driver transitions off signal lines, cutting power use while avoiding switch parasitic capacitance.

Touch signal lines routed on both sides of a blocking dam shrink display bezels while lowering resistance and touch failure risk.

Mesh lines with differently sized protrusions preserve touch sensing while reducing light blockage and reflected pattern visibility in displays.

Shielding lines placed between touch and data leads cut coupling capacitance in OLED panels, improving touch and display performance.

Keeps an enlarged file image visible while the pointer moves onto it, enabling smoother reference and operation without re-triggering display.