Input/Output Processes For Data Processing TRIZ Cases

By switching the OLED upper electrode between power supply and touch control, the design removes external touch sensors to cut thickness and cost.

Tap-hold, slide, and lift gestures lock or end media capture with fewer inputs, cutting user time and power use on portable devices.

Switches, diodes, and capacitors let touch-panel gate voltages toggle during sensing while blocking feedback and preserving display driving.

Opening-aligned conductive layers in a display input sensor cut contact resistance at contact holes, improving touch response and accuracy.

A trench-shaped insulating stack with refractive-index layering bends emitted light forward, boosting display brightness without added thickness.

Dynamic sinusoidal drive amplitude improves capacitive hover and touch detection by limiting saturation and electrode coupling errors.

Varying through-hole spacing in the touch sensor stack reduces bezel reflection patterns while preserving constant-voltage electrode contact.

Orthogonal sensing electrodes and overlapping contact lines shrink the non-sensing region while improving touch detection and connection reliability.

Time-switched control between proximity and line-of-sight sensors prevents light interference and keeps viewfinder eye tracking stable during blinks.

Cross-arranged capacitive and electromagnetic touch channels share one insulated touch layer to cut panel thickness and simplify OLED display manufacturing.

A swappable overlay on a touch-grid handheld controller reconfigures aircraft seat controls without PCB replacement, cutting redesign time and waste.

Real-time 3D model previews and unscanned-area cues guide environment scanning, cutting wasted motion, scan time, and battery use.

Separate sensing areas for electromagnetic and capacitive inputs reduce interference and keep multi-input response synchronized.

A bonded resilient and supporting structure replaces metal-heavy touch pad parts to cut weight and cost while keeping strength and adjustable press force.

Dummy receiving electrodes capture LGM noise for subtraction, enabling accurate multi-touch position detection even when the touch device is floating.

Trigger-matrix filtering suppresses grounding-induced capacitance noise, enabling more accurate and stable touchscreen touch coordinates.

Dual measurement across adjacent touch regions keeps one chip as the unified data source, improving coordinate accuracy and linearity.

A multifunctional insulating layer in the touch sensor absorbs non-emission light, cutting process steps, cost, and external reflectance.

Matrix division blocks activate sensing lines only near the detected pen, cutting panel power use and sensing time while preserving coordinate accuracy.

Positioning touch pad sets between display driving pads avoids wire intersections, reducing crosstalk and improving touch-display signal quality.

Pressure and coupling-signal detection lets a terminal stop delayed handwriting display as soon as the stylus leaves the module.

Candidate travelable spaces and 3D objects are shown only when they fit user attributes, cutting processing load and preserving virtual realism.

V-shaped folded connecting sub-electrodes scatter overlap regions across layers to cut electrode visibility and improve display quality.

Through holes in the sensor substrate let fingerprint modules sit behind the panel while rerouted electrodes preserve the active touch detection area.

A conductive shielding layer between OLED signal lines and emitters reduces coupling noise, stabilizes cathode voltage, and enables active stylus use.

Local removal of the peripheral inorganic insulation layer prevents peeling, wrinkling, and contamination in flexible touch display panels.

A dual-layer elastic pen tip uses softer and stiffer bodies to cut writing sound while limiting stroke and preserving writability.

A spacer opening and widened signal-line section reduce short-circuit risk in display input sensing while preserving high display density.

A four-layer electrode stack switches between touch and pen sensing to avoid a separate digitizer while keeping thin, lightweight input hardware.

Data is sent to the stylus only while it is detected near the surface, reducing interception risk and incomplete transfer.

Transform-based touch reading selects sensing lines and excitation frequencies by touch target area to cut power use and improve detection robustness.

Rear-mounted light sensing uses low-resolution panel areas, etched holes, and light-blocking patterns to cut bezel area and reduce distortion.

Multilayer sensing lines with width variation balance resistance across unequal lengths, limiting touch signal distortion and improving detection accuracy.

Capacitive and electromagnetic electrodes share one touch layer to support stylus input while cutting panel thickness and assembly cost.

Context-based reaction icons and segmented message input reduce key presses, user burden, and battery use during message exchange.

Press-threshold context menus let home screen app objects be reorganized and edited faster, reducing mistakes, clutter, and power use.

Dummy electrodes overlapping uneven sensing electrodes balance regional touch sensitivity and improve uniform input response across the panel.

Multiple nibs in a segmented tip write different colors at once, improving ease of use, ink flow consistency, and reliability.

Hover detection creates on-screen position labels that align touch pad input with the display for smoother handwriting and drawing.

A synchronized map and information-card interface preserves context during view changes, making data exploration smoother and more efficient.

An interactive scheduling interface combines disparate data and metric evaluation to speed rescheduling decisions and reduce user workload.

A shared electrode layout switches sensing modes to detect both body touch and electronic pen input without separate sensor systems.

Optical sensors detect screen states and trigger solenoid end effectors to automate valid touchscreen interactions without human intervention.

A four-layer conductive sensor stack separates touch and pen electrodes to improve input differentiation without adding device thickness.

Sensors and feedback automate headband fitting in a head-mounted display, cutting trial-and-error adjustment time across head shapes.

An organic layer placed in the groove cuts touch residue during etching, preventing shorts and improving touch line connection reliability.

A layered conductive layout uses auxiliary conductive portions and jumper layers to simplify OLED panel wiring, save space, and stabilize cathode potential.

A unified app list groups local and external device tasks into swipeable pages, improving cross-device control and execution visibility.

Differential row-column capacitive coupling improves touch detection for large or rotated inputs while reducing environmental noise.

Non-overlapping touch and pen sensing periods in one frame improve input accuracy while keeping response time flexible through adjustable blank timing.