Input/Output Processes For Data Processing TRIZ Cases

A localized shielding layer between data and touch link lines limits electromagnetic noise while preserving touch sensitivity.

This case uses app bookmarks and drag-and-drop merging to reduce switching complexity while supporting simultaneous app use.

A sensor layer combines touch and auxiliary electrodes to detect pen input while preserving device thickness and flexibility.

Explore electrode and trace-line integration that enables touch and pen sensing while avoiding the bulk of a separate digitizer.

This case uses edge-region narrowing portions to equalize lead-wire resistance and reduce impedance variation in touch-control signals.

This touch sensor uses locally thinner insulating-layer edges to speed opening etching, reduce heat, and preserve insulation elsewhere.

Multilayer encapsulation and separated mesh electrodes improve touch sensitivity and flexibility in foldable electroluminescent displays.

Mixed polycrystalline and oxide TFTs use insulating and blocking layers to simplify fabrication, limit leakage, and reduce display blur.

A mesh-pattern input sensing layer maintains sensing capability while reducing front luminance loss and external reflection.

A grooved display panel uses layered insulation and optical functions to integrate cameras or sensors while reducing reflection.

This case uses sub-10-micrometer tracks, asymmetric spacing, and interrupted paths to preserve conductivity and optical uniformity.

A backside filter layer integrates optical filtering with the display panel, reducing leakage, thickness, and assembly steps.

Multiple optical sensors track sleeve rotation and axial sliding, extending motion range and improving ergonomic pointing precision.

U-shaped bridge routing connects rounded-corner electrodes while limiting signal interference.

Packet-loss feedback lets a DPU adapt read-request rates, reducing network congestion while supporting stable storage cluster performance.

This display layout places a power line between signal paths to reduce noise and improve touch and pressure sensing accuracy.

A pre-synchronization signal identifies the stylus region, enabling localized touchscreen uplink signals for faster, more stable timing.

A switched energy-storage capacitor reuses discharged touch-electrode charge, reducing power-supply demand while preserving drive voltage.

This case shows how a portable terminal uses touch-activated marks and a local keyboard to insert data directly at the desired position.

Cameras, motion sensors, and traditional controls generate unified navigation commands for faster focus movement across complex pages.

Gesture-based multimodal input combines images, videos, and text for faster generative AI creation, editing, and remote collaboration.

Dual-frequency noise sensing selects a lower-noise capacitance measurement frequency, improving user-input detection accuracy.

The device driver converts finger touches to relative coordinates and pen contacts to absolute coordinates for flexible input.

A voltage-driven shielding electrode separates touch and cathode electrodes, reducing parasitic capacitance noise and improving touch sensitivity.

This case dynamically selects the nearest supported window proportion, preventing page-layout mismatch during user adjustment.

Transparent layered desktop subpages let users preview another page and move icons directly, reducing page switching complexity.

A charge amplifier uses unequal, in-phase excitation signals to offset parasitic capacitance without enlarging the detection circuit.

This case integrates an inductor, parallel capacitors, and conductive contacts to preserve EMR while enabling thinner, foldable devices.

This case uses regional scaling, shift correction, and skew correction to improve touch location accuracy near cameras.

This case combines capacitive touch and stylus sensing in one electrode array, reducing complexity and space while decoding FSK data.

A magnetic assembly switches roller resistance modes, supporting stepped feedback or smooth rotation for long-term and fine scrolling.

Two projectors and fuzzy scoring classify operational values, improving model selection and user-provided data processing.

Multilayer sensing lines use length-based widths and contact holes to limit resistance variation and improve touch detection accuracy.

A sensor controller sequences touch and pen sensing with adjustable blank periods for accurate coordinate acquisition.

A capacitive panel validates knob input only after detecting two or more peripheral contact points, reducing false positives.

This case removes empty grid cells between object clusters, preserving relative positions and point discernibility in constrained displays.

This case uses bent signal lines and layered routing to preserve touch connectivity as electrode density increases.

This case combines touch and pen sensing in one sensor layer, using local signal weighting to improve input precision.

A shared electrode array switches between capacitive touch and transducer sensing while carrying encoded digital data.

A head-mounted display and back-mounted power module combine depth sensing, object detection, and hot-pluggable power for industrial use.

A low-resolution sensor area uses etched insulating layers and light-blocking patterns to reduce distortion while preserving image quality.

This case shows how a layered electrode structure uses an insulated wire between signal wires to reduce interference and discharge risk.

Angled, isolated electrode arrays shorten electrical paths and improve SNR for reliable capacitive sensing on large screens.

The touch driving circuit sends sensing data during address and command signaling to reduce wait time and power consumption.

This case tracks contact-region size and temporarily inhibits touch output after pen detachment to prevent erroneous hand-touch detection.

This mouse pad combines a rigid tracking layer with fabric to improve cursor precision, reduce hand abrasion, and sustain surface quality.

This touch display case extends the cathode over gate circuitry, using spacers to reduce sensing noise and block moisture paths.

Reflected ultrasonic waves and adaptive thresholds keep touch detection reliable when water disrupts capacitive sensors.

Limited pen-body space restricts electrode size; a detachable threaded pen core expands layout space and supports replacement.

A welded strain structure replaces the bulky frame, improving stylus space utilization, stability, and force detection accuracy.

A configurable screen lock system displays a setting interface to adjust execution conditions for touch events.

Parallel scanning processing circuits fetch horizontal and vertical sensing signals simultaneously to accelerate touch data updates.

Segmented input and incorrect input determination electrodes resolve sensing accuracy issues caused by body part proximity in high-density panels.

Varying conducting line widths and spacings in touch device regions mitigates static charge accumulation that causes electrostatic discharge damage.

Navigation zones enable 360-degree traversal and direct jumping on touchscreens, resolving the trade-off between interface simplicity and navigation efficiency.

A touch sensing device calculates coordinates and determines touch areas using a third circuit to classify user input.

A touch panel design adjusts contact via counts across electrode blocks to maintain uniform electrical connections.

Variable width conductive patterns in display sensing parts increase capacitance to resolve the trade-off between touch sensitivity and structural complexity.

Apertured touch dielectric layer positions black matrix segments between light-emitting units to reduce panel thickness.

A controller dynamically adjusts touch resolution on an AMOLED display to create capacitive zones for input detection.

A conductive layer overlaps touch detection electrodes to eliminate static electricity.

An image display environment expands a thumbnail to target dimensions before the actual resource loads.

Switching electrodes into parallel arrays expands the proximity detection range beyond five centimeters.

Dynamic data reduction in drive sense circuits lowers transmission rates while preserving accuracy for touch, hover, and pattern recognition.

A laminated wiring structure combines low-reflection nitride film with conductive layers to produce touch panels.

A user-borne device uses a rotating magnetic object and magnetometers to register scroll events based on measured field changes.

A touch screen interface transitions folder icons between condensed and expanded states using finger movement detection.

Integrating NFC antennas into touch panel electrodes eliminates inductive components, reducing device size and cost while enabling versatile operation control.

A dynamic word tree interface structures assistive communication options into navigable hierarchical nodes.

A driver circuit with an operational transconductance amplifier and current mirror enables simultaneous electrode driving and sensing.

A digital inking device dynamically adapts its interaction model based on user activity and proximity to a paired computer.

Segmenting USB 2.0 conductive points transmits multiple data streams simultaneously, resolving port quantity limits while maintaining full transmission speed.

A metal pattern on a display substrate stabilizes the conductive layer, reducing interference between embedded touch sensors and other components.

Area-based segmentation lowers manufacturing costs by reducing the number of signal processing channels needed for high-density electrode arrays.

Segmented sensing electrodes with interdigitated finger portions increase mutual capacitance, resolving small signal changes in capacitive touch detection.

An electronic device merges outputs from similar application programs into a shared interface for streamlined user input.

Horizontal routing of touch drive lines with data lines shrinks the non-display area while preventing block dim phenomena caused by coupling capacitance.

A system detects multiple contact points on an interactive surface to identify specific graphical object manipulations.

Stacked touch electrodes separated by a black matrix insulator increase capacitance and sensitivity while reducing device thickness.

A touch display panel uses an oblique wire extending into a peripheral contact groove to join conductive layers.

Conductive lines in a touch sensor mesh orient at calculated angles relative to pixel pitch to reduce moiré patterns while maintaining touch sensitivity.

A touch sensing system detects single-point-multi-finger gestures by sampling electrical signals and analyzing physical quantity variations at the contact point.

Segmented conductive blocking member prevents eddy current generation to stabilize resonance frequency in touch sensor stylus pens.

Segmented dummy drive and receiving electrodes reduce base capacitance by blocking partial capacitance paths, improving touch sensitivity.

Cutout parts widen toward ends and recess vertices, allowing smooth bending in curved edge regions for four-edge smartphone displays.

A sensor pad uses a resistive grid to detect pressure and position.

A computing device alters selectable input positions based on detected hand orientation to ensure accessibility.

An object sensor validates touch inputs by detecting physical objects, filtering false signals from contaminants like water or dirt.

Sensor-driven icon adjustment resolves interface clutter by highlighting targets, reducing search time without adding navigation complexity.

Via holes expose the first conductive layer through a second protective layer, lowering contact resistance and preventing panel sticking.

A mouse housing module shifts between left and right positions to match user hand dominance.

Alternating resistor placement at orthogonal electrode intersections reduces sensor thickness and material costs without overlapping components.

An invisible DOM element listens to cursor movements to reposition graphical objects within a shared pixel buffer.

A capacitive touch panel input device applies driving signals with phase differences to improve capacitance detection accuracy.

Transforming raw touch data into a three-descriptor space enables the system to reject unintentional contacts and improve multi-finger recognition accuracy.

Level shifters boost drive signals to cover base electrodes, enabling electrostatic capacitance detection in the frame area where standard drivers fail.

A touch detecting unit integrates third sensor electrodes to detect mutual capacitance changes for proximity sensing alongside standard touch detection.

Segmented transmitting tips reduce power consumption by activating only the required tip, maintaining detection accuracy through capacitive coupling.