A touch array substrate uses a transmitting driven unit to sequentially output signals to transmitting lines.
Modular sensing units adapt mice to transparent glass and textured surfaces, resolving cursor signal abnormalities caused by fixed sensors.
Segmenting the display into priority zones resolves the contradiction between maximizing screen area and maintaining reliable touch differentiation accuracy.
A piezoelectric layer between aligned sensing electrodes detects pressure within a display panel structure.
A capacitive stylus uses a transformer to boost signal voltage amplitude for reliable position detection.
A bridge control chip sorts read/write commands by logical address distance before transmitting them to a flash memory device.
A stylus uses a shared processing circuit to detect beacon signals via head and tail electrodes.
An active stylus generates its own drive voltage to capacitively couple with a touch sensor panel, enabling precise location detection.
Intersecting trimming lines segment conductive areas in a touch panel wiring area, reducing coupling capacitance and preventing erroneous operation.
A touch sensing apparatus segments vertical and horizontal pattern electrodes into sub-patterns to determine coordinates from combined sensing values.
Merged bridge electrodes serve as both touch sensors and interconnects, reducing OLED thickness while preventing color mixing between sub-pixels.
A stylus cycles through drawing tool settings via a single button, reducing physical complexity while maintaining attribute versatility.
Switching assembly retracts scroll wheel within casing to protect against external impacts while maintaining operational accessibility.
Integrating letter and symbol keys into a single layout eliminates tedious switching operations while maintaining versatile input capabilities.
Integrating touch sensor, thin-film transistor, and color filter layers on one substrate reduces total thickness and simplifies circuit design.
A touch control apparatus maps finger pressure values to specific screen commands through a predefined relationship table.
Segmentation and local highlighting resolve interface complexity while maintaining selection clarity in OLAP systems.
Merging touch electrodes with light-emitting device layers reduces production cost and module thickness.
A force touch controller detects pressure magnitude to execute distinct 3D touch functions based on sequential threshold crossings.
A mutual capacitance sensing apparatus integrates touch and force detection using multiple electrode layers and a resilient dielectric layer.
Storage adapter circuit translates host bus signals to storage interfaces, eliminating separate infrastructures for each protocol.
Merging data lines with touch sensing electrodes via zigzag thin film transistors reduces mask processes and fabrication time for in-cell displays.
Coordinate electronic document scrolling by applying rubber-banding animations to content regions while keeping background objects stationary.
Segmenting rendering contexts resolves the complexity trade-off while mixing real-world and non-real-world elements for deeper visual sensation.
An environment evaluation system computes interface experience metrics from user interaction data to identify specific frictional transitions.
Amorphous silicon sensing units merge with display pixels to detect touch inputs directly on the substrate.
A touch interface method uses two graphical objects and specific gestures to activate critical functions.
A stylus voltage boost circuit increases output signal levels using independent timing control.
A control unit determines panel position and dimension to expand interface panels for subpanel display on mobile devices.
A capacitance hotspot feature detection method analyzes eigenvalues to distinguish accidental odd-form touches from normal finger inputs.
Shielding layer between circuit layers enables vertical overlap, reducing non-sensing area width.
A control apparatus restricts pointer movement to enable precise target object selection on display screens.
A virtual key layout system dynamically rearranges touch input elements based on real-time error counting to optimize single-handed mobile operation.
A shielding electrode with feedback circuitry compensates for noise caused by parasitic capacitance coupling between touch electrodes and signal lines.
A capacitive touch sensor uses interlaced conductor arrays to produce fringing and parallel-plate capacitances for simultaneous input detection.
Stacked segmented sensing wires reduce electrical resistance without causing wire separation in large displays.
Multi-module optical sensing calculates intersection points to filter ghost positions and determine accurate touch coordinates.
A display device substrate features a bottom metal layer with a hole in the component area to support electronic components.
Reducing second electrode area minimizes noise interference from liquid crystal panels while maintaining touch sensitivity.
Moth-eye structures and graded-index layers minimize stray light reflections while removable vision correction lenses accommodate individual user needs.
Inserting idle gaps between storage responses allows the host to transmit commands during transmission intervals, reducing overall system latency.
A controller adjusts touch traces using proximity sensor data to detect motion direction before contact.
Field flattening and paraboloid interpolation convert raw signal maps into precise touch coordinates while reducing interference on transparent displays.
Digitizer sensor transmits orthogonal signals on conductors to decompose sampled data and double interrogation rate.
A cursor jumps ahead of the moving finger to maintain a constant distance and adjust its relative angle on the display.
A browser-based gesture mapping system translates touch inputs into context-specific control signals for web applications.
Thin wiring portions on meandering hinges distribute stress and absorb torsional loads, reducing joint breakage in stretchable array substrates.
A double touch input method determines a selection location between two distinct touch points on a graphical user interface.