Input/Output Processes For Data Processing TRIZ Cases

A touch screen computer processes user behavior signals to determine virtual key activation characteristics.

Optimized thickness ratio between external connection terminals and lead wires in touch panel conductive members.

Conductive lines generate intersecting electric fields to shorten response time and reduce power consumption in vertical alignment displays.

Position detection triggers power saving, conserving battery life without complex controls.

A display processing unit adjusts operation object depth positions based on touch inputs to generate three-dimensional content.

A flexible resistive touchpad uses segmented conductors to detect touch location in non-rectangular forms.

Dynamic positioning of a floating virtual keyboard resolves the reach limitation on large touchscreens by allowing independent size and location adjustments.

Shield electrodes mitigate display interference, improving self-capacitance measurement precision without adding layers.

A pointing stick module uses a rank unit and controller to determine sensing device rank via electrical conductivity signals.

A metal mesh shielding layer positioned between the TFT and common voltage electrode layers reduces signal interference in in-cell touch displays.

A display control unit generates synthesized icons from overlapping allocated areas to maintain visual recognizability.

Active stylus pen outputs segmented driving signals to enable accurate touch detection and additional function sensing.

A woven touch sensor structure arranges unit electrodes in diagonal directions to reduce the number of required touch lines.

A display device input sensing layer uses varied conductive pattern line-widths to enhance signal detection across different regions.

A touch sensor detects slide operations from an outer area adjacent to a display surface.

Dynamic frequency control avoids panel noise overlap with touch signals, resolving capacitance interference and improving detection accuracy.

A thin film transistor array substrate uses varying touch trace counts per electrode to balance voltage signals across the display panel.

Conductive shield sheet blocks electromagnetic noise between sensor and wireless controller, enabling compact design without detection interference.

An entangled electrode matrix resolves pitch constraints to maintain detection precision on panels exceeding 12 inches.

Time-division scanning zones reduce power consumption while maintaining detection accuracy.

A control unit separates obscured background content into prioritized components to improve screen usage efficiency.

A conductive blocking part covers sensing wirings to prevent signal distortion from electric field interference.

A touch panel merges first and second electrodes to detect capacitance changes for touch and resistance shifts for pressure.

A resistive touch screen uses segmented screens and a reference resistor to measure voltage changes for accurate dual-touch detection.

Touch screen controller scans multiple frequencies to determine the optimal operating frequency for an active stylus.

Input/output translator translates consolidated indication signals into multiple translated indication signals for processor support operations.

A touch sensing device computes a flatness index from local 2D sensing information to determine touch status accurately.

Peripheral sensors on substrates detect touch via capacitance changes, avoiding pixel-level obstructions that reduce transmittance and contrast ratio.

Adjusting wire overlapping areas maintains consistent capacitances between touch electrodes and non-connection wires, improving touch detection accuracy.

Switch circuits connect grouped sensors to shared signal lines, reducing routing congestion and power consumption in large touch panels.

A signal processing circuit uses a step current mechanism to compensate operational amplifier offset voltage in touch devices.

A display unit shows a placeholder image when a detection unit senses proximity, providing immediate visual feedback before contact.

An image forming apparatus resolves speed and precision trade-offs by dynamically switching adjustment amounts based on pinch operation angles.

A shielding layer connects to a low potential power line within the display device non-active area.

Spectrally shaped drive signals distribute energy across RF subcarriers to minimize electromagnetic emissions while maintaining noise immunity.

Series-connected piezoresistive force sensing units measure resistance variations to identify the number of fingers touching the device.

Orthogonal second signal lines reduce resistive loss in transparent electrodes, ensuring uniform sensitivity across the screen.

Aligning sensing pads with pixel electrodes eliminates visibility of touch elements that deteriorates display quality.

A processor detects palm presence on a touch panel to switch software keyboard input modes without manual button interaction.

Capacitive coupling selects proximate touch sensors for stylus data decoding, reducing hardware requirements while maintaining signal integrity.

Merging pressure detection electrodes with the touch panel substrate removes additional assembly steps, reducing manufacturing time and cost.

Pseudo touch electrode lines in non-display areas generate counter-phase fields to cancel electromagnetic interference from 5G mmWave signals.

Segmented sub-electrodes connect via sensing lines to reduce electromagnetic interference and power consumption.

Segmented wedge electrodes resolve signal interference in narrow frames, enabling accurate active pen recognition.

Segmented thin metal wires in a mesh pattern improve touch detection accuracy by reducing electrical resistance without compromising transparency.

An immersive layout system generates holographic medical image renderings for parameter exploration.

Dynamic touch threshold control reduces processing demands and battery drain while filtering noise from user gestures.

A screen control method uses photography terminals to capture display images and extract preset identifications for operation execution.

Coordinate correction algorithms adjust finger position detection based on mounting angles to resolve accuracy loss in inclined vehicle displays.