Input/Output Processes For Data Processing TRIZ Cases

A touch panel uses a switching unit to segment sensing signals for precise voltage detection.

A user interface groups application icons and transitions to a one-dimensional array for seamless switching.

An array substrate partitions common electrodes into alternating segments connected by metal wires, reducing signal delay caused by high ITO resistance.

Dual digital conversion separates serial and parallel RC contributions, resolving complexity and cost barriers in low-power sensing.

Forming ITO circuits on the polarizer reduces touchscreen thickness without increasing manufacturing costs or compromising cover lens strength.

Merging sensing data reduces bit width to lower transmission time while maintaining measurement precision.

Segmented sensor groups with varying scan periods reduce average refresh times and maintain high response speeds in large displays.

A display device uses a cover part and buffer PCB to seal the rear side while exposing cables.

A self-capacitance touch display panel uses a single-piece common electrode layer to maintain uniform voltage across all display units.

A touch profile analysis method identifies mis-touches by evaluating horizontal coordinates against maximum vertical lengths.

A touch controller integrates a guard trace and reference voltage circuit to cancel parasitic capacitance noise, maintaining signal accuracy.

A touchscreen device calculates predicted flicking distance from initial velocity to identify the target entry.

An infrared light guide plate distributes light to a camera, resolving the trade-off between direct contact operation and non-contact gesture interaction.

A touch panel uses a raised structure in the border region to increase overlap between the sensing electrode and peripheral circuit layer.

Asymmetric electrode patterns and bridge structures improve sensing accuracy while maintaining uniform signal distribution.

Augmented reality photography identifies devices to display cooperative functions, reducing multi-device identification complexity through segmentation.

An optical scanner detects print portions on a surface to generate specific events.

A touch point detecting circuit uses mutually inductive coil arrays to determine multi-point positions via signal line connections.

A detection unit outputs capacitance values while a determination unit applies dynamic threshold conditions to accurately identify touch start and end events.

A logic system manages interlink power states to maintain stable communication during clock and data recovery cycles.

Alternately arranged spring-shaped pressure sensing electrodes detect resistance variation, reducing manufacturing complexity from bridging structures.

Controller detects display image type to generate optimized print data, eliminating large margins on paper from mobile web pages.

Expanded first metal electrode blocks avoid steep planarization slopes that interfere with touch performance.

Matrix electrode array detects bending response via capacitive scan to estimate input force, resolving device complexity constraints.

Dummy electrodes connect to an electrostatic transmission layer via vias to dissipate static charge from touch substrate manufacturing.

A contact preventing layer sits between the first electrode and pixel defining layer in an OLED display device.

Segmented electrode design resolves software complexity trade-offs by enabling planar sensors to adapt to three-dimensional shapes without gaps.

Segmented conductive elements separated by dielectric material minimize shadow effects and position offset on tilted capacitive touchscreens.

A stylus detects compressive force along its outer surface using integrated sensors to provide additional input signals.

A capacitive touch readout circuit accumulates charge in a gain capacitor and transfers it to a feedback capacitor for signal processing.

A capacitive touch panel method calculates a motion estimation vector from positioning and sensing coordinates to determine object location.

A touch screen controller validates input positions within a defined area to ensure stable and intended touch events reach the processor.

A transparent display device integrates a shielding layer between touch lines and anode electrodes to minimize parasitic capacitance.

Segmenting the display into separate portions allows users to draw continuous strokes across keys, correcting fat finger errors without visual attention.

Optical touch screen signal processing uses periodic infrared modulation to detect object presence via line-scan cameras.

Integrally molded mouse feet remove adhesive edges that trap dust, while grounded metal layers prevent static buildup for smooth gliding.

Serializing parallel bus data reduces the number of required I/O pins, lowering system complexity and cost.

Touch sensor acquisition cycles occur during low-noise display intervals, eliminating shielding layers and reducing power consumption.

Assigns set value groups to operating portions via a touch panel interface.

A virtual burst write command encodes non-sequential addresses to transmit multiple image sensor registers in a single serial bus transaction.

A multimodal task assistant system accepts voice, text, and gesture inputs to provide speech, text, and haptic outputs through a unified interface.

A transparent display device overlays information from external objects onto its screen.

A capacitive touch system uses frequency division multiplexing to modulate drive signals across multiple frequencies for precise detection.

Switches drive and sense lines between coupling states to measure grounding conditions alongside touch events.

Segmented touch sensing electrodes reduce parasitic capacitance between lines and improve luminance consistency.

A mnemonic keyboard system organizes letters in a 5x6 grid to enable efficient one-handed typing on small electronic devices.

A display input sensing unit uses segmented mesh conductive patterns to minimize parasitic capacitance and enhance signal sensitivity.

Segmenting deletion inputs prevents accidental loss of linked child items by requiring distinct gestures for bulk versus single item removal.

An angled overcoating layer disrupts periodic interference between electrodes and pixels, eliminating moiré patterns without deforming pixel structures.