Input/Output Processes For Data Processing TRIZ Cases

Non-straight transmission line routing reduces pattern visibility and decreases flexible printed circuit board area.

Acoustic sensors detect vibro-acoustic signals from finger parts to classify touch events.

A content display control method fixes multimedia objects in a specific screen area when corresponding text scrolls into view.

Continuous multi-touch gesture recognition system using spatial and temporal segmentation of input data streams.

Rotating panels expand a collapsible stylus into an ergonomic writing shape while minimizing storage volume.

A buffer controller manages write and read pointers to synchronize multiple real-time signal streams within integrated circuit codecs.

A multifunction pen houses writing and electromagnetic induction refills in a single shaft tube to enable seamless mode transition.

An array substrate places touch sensing lines and electrodes in different layers to form vertical coupling capacitors, reducing non-display area occupation.

An integrated sensor detects touch and proximity events via mutual capacitance, eliminating separate sensors to reduce device complexity.

A touch sensing system modifies out-of-bound coordinates to the active area edge.

Segmented common electrodes route through electrostatic discharging circuits to ground wires, preventing static damage in touch sensor integrated displays.

A touch sensing apparatus detects stylus inputs in peripheral areas using capacitive values from active area nodes.

A mouse wheel device uses a translating mobile unit to engage or disengage a ratchet tooth surface for rapid mode switching.

Optimized cut-away widths in the input sensing layer reduce luminance ratio deviations across viewing angles while preserving sensing performance.

Connecting material fills substrate holes to electrically link conductive layers across display device substrates.

A glass plate features a microscopic asperity surface with controlled peak distribution to provide finger sliding properties.

A grounding-connected shielding wire placed between signal traces and the touch control region reduces mutual capacitance to fix non-uniform distribution.

Stacked MoNb and AlNb layers in a touch signal line prevent oxide formation at the interface, eliminating dry etching steps.

Segmenting the electrode into intersecting micro-wires reduces light occlusion while maintaining electrical conductivity across the display.

A user-borne device uses movable magnetic components to generate unique signatures for identification.

A touchscreen display controller switches operation modes to maintain designation point disposition relative to contact points.

Segmented ambient and coaxial illumination eliminates shadows in dual camera images, resolving the trade-off between surface lighting and detection accuracy.

Segmented electrode design minimizes equipotential line distortion and expands usable area by eliminating complex T-shaped protrusions.

Directly depositing touch sensing electrodes on a composite polarizing plate eliminates separate substrates, reducing display device thickness.

Sensitivity adjusting layer compensates for distance variations on curved surfaces by varying electric permittivity, ensuring uniform detection sensitivity.

A filling electrode connects drain and pixel electrodes through a planarization layer hole to lower coupling capacitance.

Positioning a dummy electrode between touch routing lines and signal lines reduces parasitic capacitance that degrades touch sensing accuracy.

A virtual button positioning system detects interactive object regions to determine optimal display coordinates.

A common-mode sensor subtracts display noise from capacitance readings to resolve interference issues in touch detection.

Front and back display areas enable distinct touch inputs, resolving the trade-off between versatility and device complexity.

Distinct icons indicate whether selected objects are real or virtual, reducing false selections caused by visual overlap in augmented reality displays.

Proximity sensors detect user approach to delay automatic screen rotations, preventing unintended inputs during device handling.

Zero-sum driving signals eliminate AC offsets to improve measurement precision and enable touch panel miniaturization.

Acoustic sensors detect touch characteristics to distinguish between soft and hard inputs on mobile terminals.

Lane indicators expand upon drag detection to enable precise card placement on small mobile displays.

A portable device interface displays additional selectable features in accessible screen zones to support one-handed operation.

Resin sealing protects the coil from water ingress, preventing resonance circuit characteristic changes and simplifying manufacturing.

A touch sensor IC adjusts its measurement schedule based on display driving signal intervals.

Acoustic touch detection system adapts spectral characteristics via frequency shift to maintain precision.

A display panel uses staggered grid units in touch electrodes and leads to minimize overlap area between layers.

Scheduling software system uses a search engine to look up suggested time zones for appointment locations, comparing user input to prevent scheduling errors.

A touch controller master coordinates a slave driving device to transmit sensing data through a filter unit.

A hybrid electrode structure with stacked oxide and metal layers enhances touch screen transmittance.

Varying line lengths in adjacent electrode columns compensates for distance-induced capacitance deviations, maintaining consistent sensing accuracy.

Segmented grid portions reduce parasitic capacitance while optimizing cutting openings to alleviate brightness attenuation in OLED displays.

A page switching method calculates target indices based on sliding speed and direction to optimize navigation paths.

Segmented modules and universal attachment mechanisms resolve adaptability versus complexity trade-offs for users with motor skill limitations.

Pattern analyzer detects optical signals and compares them with designated button patterns to identify valid touch locations.