Input/Output Processes For Data Processing TRIZ Cases

A 3D illuminated color selector maps base-color variations across shadow and highlight regions, making realistic lighting transitions easier to choose.

A black matrix over touch electrodes blocks reflected external light without a polarizer, while keeping the OLED stack thin and preserving viewing angle.

A relay wire and via-hole connection keep touch wiring buried in the organic layer, reducing FMLOC short-circuit defects and stabilizing touch signals.

Touch pressure, timing, and location data reveal impaired aircraft operator state without extra sensors, enabling alerts or automated assistance.

Inside and outside sound pick-up signals are XNOR-processed to filter interference and improve zero-touch-height screen detection.

Spaced sub-sensing electrodes in intersecting directions reduce interference and touch failure in flexible display panels.

Composite trapezoidal sensing elements improve narrow pen touch and vertical coordinate detection while avoiding higher coplanar capacitance and SNR loss.

Grouped touchscreen sensors create an electric field to detect user approach in sleep mode, cutting wake latency while limiting power use.

Dynamic tab switching links user actions to adaptive tab display, enriching page presentation modes without fixed interface behavior.

Stacking touch and signal lines across insulating layers preserves light transmittance while improving parasitic capacitance uniformity.

A compensation electrode balances capacitance between in-cell touch lines, improving touch accuracy in transparent display pixels.

Staggered dual sensing circuits separate calibration from touch detection to cut wake time, maintain accuracy, and lower power use.

Strategic openings in touch and light-blocking layers cut external light reflection while preserving transmittance in display panels.

Segmented touch zones and a press switch let one mouse button trigger multiple fast inputs while preserving tactile click feedback.

Separate transmit and receive electrodes with a stop filter let an active pen receive uplink signals without time-division delay or added noise.

A semi-expanded popover reveals node details without shifting surrounding shapes, preserving layout stability and reducing cognitive load.

Alternating aging pin groups between binding pin groups frees bonding-area space while preserving signal consistency for display substrate testing.

Crossing metal lines form grid squares that lower line density for higher light transmittance while preserving electrical paths for touch sensitivity.

An on-cell RX electrode layout with jumper wires combines touch and pen sensing to cut display stack thickness without hurting visibility.

Template curation and DSL-compatible modules automate TV menu ad creation, replacing manual hard-coding with scalable interactive media rendering.

A refractive layer with stacked light-blocking patterns narrows viewing angles for privacy while preserving luminance and color purity.

Position-specific electrodes and gap heights equalize capacitance changes across center and edge touch sensors for more accurate force input detection.

Time-slot assignment and stored stylus configuration cut overhead and keep active stylus communication stable during repeated in-range and out-of-range writing.

A touch UI shows open-app icons beside the current view, enabling faster gesture-based switching with lower cognitive load and power use.

Localized protrusions at icon boundaries and centers improve tactile input for visually impaired users while reducing glare and image distortion.

Adaptive touch area switching combines virtual keyboard and touchpad functions to save display space and reduce mistouches.

A grip-mounted tracker keeps the hand from blocking detection, enabling precise 3D pointing and smooth hover-to-gesture input without tilt changes.

Mesh trace lines overlapping the active area cut dead space, hide visible routing, and reduce parasitic capacitance in input sensors.

Operators can adjust molding conditions faster by viewing only the selected item's change history overlaid on the setting screen.

An inclined internal contact area limits excess tilt while keeping button pressing smooth and reducing positional shift inside the controller.

A touch sensor formed directly on the OLED sealing part removes adhesive lamination, cuts process cost, and protects display pad electrodes.

Spaced metal segments around a display opening block wiring reflections while preserving touch sensing and a thin integrated layout.

A sigma-delta touch channel uses direct demodulation and a second-order CIC filter to keep high SNR while reducing channel size and power.

Offset-based coordinate correction uses raw data variation to restore accurate edge touch detection despite saturation from aging and environment.

A maskless pseudo-reflection pattern and tapered connection electrode preserve light paths at component holes while maintaining touch connection reliability.

Smaller, symmetrically arranged conductive bridges preserve touch-panel connectivity while reducing visible bridge patterns on the display.

Operators can view only the selected molding parameter's change history on the set screen, simplifying value entry and reducing screen switching.

A contact microphone captures surface acoustic waves to classify touch gestures accurately without heavy instrumentation or depth-camera limits.

Separating touch detection lines across insulated metal layers prevents FMLOC short circuits and preserves crack detection and ground wire functions.

Split touch leads to opposite binding regions and bend them to the panel back to cut RC loading, signal attenuation, and stylus noise in OLED displays.

A layered electrode layout preserves shielding around BGA-connected touchpads without extra layers, helping maintain touch sensitivity and lower cost.

A segmented touch button over a press switch enables fast multi-event mouse input while preserving tactile click feedback and lowering switch count.

An OS-level pop-up applies camera and microphone settings across apps, cutting repeated adjustments and user friction.

Curved touch-electrode grids and border grounding lines preserve signal integrity while enabling flexible OLED panels with narrower bezels.

Black pixel defining and light blocking layers cover the anode opening to suppress reflected light, reducing display reflectance and color separation.

By keeping corner leads away from the bending boundary and using stacked lead layers with vias, this case reduces cracking and improves touch panel yield.

A pen tip and peripheral electrode send reverse-phase signals to suppress tilt shift and hand interference during touch-panel position detection.

Capacitive touch profiles are used to correct active pen signals, preserving accurate pen position and smooth input when fingers or palms interfere.

Segmented common electrode regions cut vertical parasitic capacitance from display driving signals while preserving touch accuracy and image quality.

Detecting electrode expanding portions offset unequal drive electrode widths to preserve capacitance balance, noise immunity, and touch accuracy.

Optimized slit area ratios over color filter regions reduce touch electrode visibility and minimize mura issues in memory-in-pixel displays.

Segmenting input screens and inverting button taps resolves tapping accuracy issues.

Intercepts input events from shared peripherals and forwards them to connected terminals, eliminating manual switching bottlenecks.

A metal mesh touch screen panel uses intersecting electrode serials and insulating layers to form low-resistance conductive paths.

A conductive film surrounds the effective touch area of a capacitive panel to maintain stable electrical potential at the peripheral layers.

A display control device calculates positional differences between base-point content and focus positions to drive intuitive scrolling actions.

A touch screen adjusts its display area based on user input movement to enable one-handed operation.

A non-rectangular display device arranges video signal transmission and scan circuits along overlapping edges to minimize the frame area.

A pressure sensor array uses half-bridge circuits to amplify touch input signals through differential resistance changes.

Alternative bridge lines in ladder-like sensing series eliminate metal jumper wires, reducing electrostatic discharge breakage risk.

A soft keyboard converts to a split layout via gestures on touch surfaces.

A touch panel wire arrangement circuit uses a rear end switch set to create parallel resistance paths across ITO regions for uniform signal transmission.

A touch panel uses an elastic dielectric material between sensing electrodes to detect pressing force via capacitance changes.

A proximity detection touch panel adjusts its sensing threshold based on the target object size to enable accurate hover input.

Sensor fusion combines radio, inertial, and pressure data for millimeter-level tracking accuracy.

An adjustable trackball mouse uses a pivoting platform with distinct planar regions and magnetic locking to align the forearm, reducing wrist pressure.

A mapscroller interface groups function keys and icons on a multifunction peripheral display screen.

Segmented drivers apply higher signal levels to edge sensor loops, resolving distortion issues while minimizing power consumption.

Processor analyzes concurrent touch interactions to identify screen wetness and adjust input responses.

A mouse processing resource accelerates visual image movement across displays using predetermined gesture conditions.

A session interface object folder enables direct access to shared files without navigating chat records.

Hall Effect sensor detects lateral and axial magnet deflections to compute normal force magnitude across non-orthogonal angles.

Synchronous scanning and transmission eliminate idle waiting periods, significantly reducing total touch response time.

Under-sampling and demodulating active pen excitation signals improves precision while reducing power consumption.

A capacitance analysis method detects pressure on in-cell touch displays using existing sensing electrodes.

Segmenting sensing electrodes in the row direction increases touch control resolution without expanding flexible print circuit size.

A light-based touch screen uses infrared emitters and photo diodes to detect finger contact via beam interruption.

A capacitive input device uses pulse driving signals with opposite rise and fall times to detect multiple operating bodies simultaneously.

A mobile terminal controller divides the display into independent screen regions to enable selective content capture.

A handheld device tracks physical movement to update virtual object positions in a three-dimensional environment.

A touch display panel uses control switches to route data lines for touch or display signals.

A processing mode changing unit detects specific user gestures to switch between single-page and multi-page document navigation modes.

A display controller renders predicted line segments alongside actual handwriting input on a touchscreen.

A transmittance control layer adjusts light transmission across specific wavelength regions to optimize optical performance in display devices.

Segmented sensing zones apply exclusion criteria to filter grip signals, resolving detection accuracy versus reliability trade-offs.

Drawn gestures create graphical selection areas to resolve fat finger imprecision on compact mobile screens.

A touch marking unit projects optical indicators onto a floating imaging region to enable precise interaction without physical contact.

Route sensing and driving circuits on opposite flexible circuit board surfaces to eliminate signal interference while reducing bottom frame width.

Separate source and destination throttle controls prevent slower devices from blocking faster ones by managing independent request queues.

Hollowed-out electrode structures reduce light reflection differences between covered and uncovered ITO regions, ensuring uniform display quality.

Programmable precharge logic accelerates touch panel capacitor charging via a parallel path, reducing RC time constants while maintaining low power consumption.

A pressure detection method uses dual electrodes to calibrate active pen position and display handwriting immediately.

A calibration control unit segments detection into automatic and manual modes to optimize manipulation position accuracy.

A universal serial controller replaces dedicated hardware with programmable memory blocks, eliminating the resource overhead of multiple master controllers.

Non-overlapping grounding electrodes increase finger-to-earth capacitance, resolving detection accuracy issues in ultrathin low ground mass displays.

A single-layer projected capacitive touch sensor uses two bridging areas to balance capacitance and reduce bezel width.

An evaluation unit within the display detects connection states and triggers a switching component to redirect peripherals, eliminating manual reconfiguration.

Folded conductive segments reduce electrical resistance, enabling larger touch screens with higher resolution.

Protruding patterns on a bump member concentrate touch pressure at electrode crossing nodes, resolving low accuracy in edge regions and underwater operation.

Accelerometer data triggers dynamic keyboard reconfiguration, resolving input accuracy deterioration caused by device motion.