Input/Output Processes For Data Processing TRIZ Cases

Critical settings are extracted and shown in a prominent screen region so users can verify changing processing information without clutter.

A ferrite-core multilayer coil and tuned resonance circuit boost stylus signal coupling, enabling precise touch recognition with less panel complexity.

Coil-shaped electrode lines cut coupling noise while enabling capacitive finger sensing and inductive pen sensing in touch displays.

A press-and-hold touch with in-area release and gauge feedback filters accidental screen input and improves command reliability.

Awarded RFP data from comparable venues is analyzed to reveal competitor wins, missed event opportunities, and stronger targeting decisions.

A detachable mouse and laser pointer module cuts extra hardware, weight, and manufacturing cost while preserving flexible use across devices.

Selective trace-line activation across sensing phases reduces display-layer noise and improves touch accuracy and sensing reliability.

Monolithic touch-driver circuits on the pixel substrate cut external IC count, lower cost, and free bezel space in high-resolution displays.

Overlaid capacitive and pressure sensors let an electronic pen side switch handle multiple input states accurately without hurting grip or causing errors.

Pen-pressure-based mode switching lets a sensor controller keep active pen accuracy while preserving touch input near the panel surface.

An optical sensor, pressure sensing, and nested internal layout turn a pen stylus into a mouse without separate buttons or devices.

A multi-electrode sensor layer and lower conductive layer detect touch and pen input without a separate digitizer, avoiding added thickness and weight.

Timed visual indicators confirm touch selection, drag, and resize actions, reducing repeat attempts and unnecessary processor use.

A spaced battery-to-PCB layout with soldered electrode tips absorbs impact forces and reduces conductor stress in slim electronic pens.

Non-linear and switch circuitry let a stylus modulate detectable signals and force input while avoiding power-hungry active electronics.

Phase-inverted signals across touch sensor sub-areas create destructive interference that reduces EMI and improves input sensing accuracy.

Changing touch scan direction by key hot zone location shortens sampling time and improves response speed without higher hardware cost.

Weak capacitive edge signals are restored before peak and threshold evaluation, improving valid touch area detection accuracy.

A nonlinear range selector lets users browse and configure visible plot panes precisely across hundreds or thousands of plots.

By extracting preset-frequency touch components instead of full scan data, this circuit cuts bus bandwidth and processor power while preserving touch accuracy.

Position codes embedded in light-blocking touch areas enable precise coordinate detection with less calculation, power use, and drive complexity.

A unified input engine shares user entries across physical and virtual keyboards while loading only current-type data to cut memory use and switching time.

Independent sensing coil layers span the fold area to keep pen position detection accurate while simplifying connector routing and improving folding durability.

Eye and hand tracking streamline AR media capture, cutting complex inputs, cognitive load, and battery drain during preview and recording.

A touch insulating layer covers the encapsulation top and side faces to prevent patterning damage and preserve OLED panel sealing.

Simultaneous boundary transmit signals improve touch sensitivity and accuracy in divided sensing areas while managing sensor layout complexity.

Varying connector thickness across touch electrode directions reduces resistance imbalance and improves touch sensitivity uniformity in displays.

Button-state combinations let a mouse trigger copy, cut, and paste directly, reducing multi-step clicks and keyboard coordination.

An elastic biasing key mechanism and angled trigger switch cut click force, speed response, and suppress wobble for durable mouse input.

Conductive barrier ribs and sensor layers within OLED encapsulation cut RC delay while simplifying mask-free touch integration.

Speed-based touch prediction shows subsequent strokes only when useful, reducing display latency without degrading trajectory accuracy.

Finger touch movement on a 3D operation part is used to detect tilt through capacitive sensing, avoiding added pressure sensors and cost.

Temporarily expanding target split screens to full screen captures richer app interfaces and improves screenshot quality in multi-app display mode.

By integrating RF pen reception into the infrared touch frame, this case removes external receivers, saves space, and improves signal transmission.

An isolation structure separates first and touch electrodes, integrating touch into the OLED panel while reducing thickness and short-circuit risk.

Automatic styling of small image elements generates matched backgrounds faster, improving image quality in cluttered or plain scenes.

Predefined trigger conditions and modification programs let AR objects change appearance at a geolocation, increasing interactivity without static limits.

Strategic discontinuities in curved-display sensor mesh cells balance light obscuration to improve color and brightness uniformity.

Capacitance sensing tracks conductive parts inside a knob to auto-determine installation position and avoid manual coordinate updates.

Ratio-indicating icons let users resize split-screen windows within one application, replacing fixed layouts with flexible display control.

Dragging a dock affordance into the display opens split-view multitasking with visual feedback, reducing complex touch sequences on handheld screens.

Dual-touch hold selects a screen region so a mobile terminal can capture or record only that area without full-screen editing.

Multilayer sensor wiring and a surrounding light blocking member cut reflected light from inactive-area traces to reduce display pattern see-through.

Multiple test sections are imaged and compared with a master sample to set print colors before production, cutting downtime and proof waste.

Laser feedback interferometry detects eye velocity and optical path changes from one sample, enabling low-power, high-speed gesture recognition.

Stacked conductive layers and through-connections route touch wiring in one direction, shrinking bezel area while maintaining sensitivity.

Multiple signal observation windows separate same-name signals by source, reducing wrong selections and speeding multi-channel tracking.

Ray casting on a prebuilt 3D map lets users select real locations or objects as waypoints, enabling virtual content to move and interact more naturally.

Alternating double-layer touch lines in display corner regions shrink peripheral width and pitch while reducing shorts and etching defects.

A projection-and-stopper structure limits pen body travel during knock operation to prevent coil contact and keep magnetic flux stable.

Multi-layer light blocking in the touch layer narrows side viewing angles and suppresses pixel light leakage for stronger image privacy.

A segmented hand rest and palm-actuated key let users with limited finger dexterity control clicking and scrolling with less fatigue.

Scans nearby VR interactable objects by SRI, offloading deep reputation checks to a backend to block malicious content with lower client load.

Preset fields in upload text trigger duet and other function controls on newly posted content, improving author control and user interaction.

Copying dressing attributes between avatars removes tedious manual setup, speeds character customization, and enriches user interaction.

Firmware-set first-interface transfer and fixed second-interface output improve memory controller data I/O speed and compatibility.

A conductive barrier rib replaces metal masks in OLED fabrication, improving process reliability while enabling compact integrated sensor electrodes.

Overlaid dummy patterns create capacitive coupling that helps peripheral electrodes receive active pen signals without a conductive cover film.

A shielding electrode tied to the power supply and through-hole connection electrodes cuts sensing-line noise and improves input sensing reliability.

Maps input movement characteristics to 3D object translation, rotation, and resizing in XR while reducing selection errors and input burden.

Auxiliary and segmented display sensor electrodes detect pen electromagnetic resonance while maintaining accurate, intuitive input.

A mesh-opened touch sensor and alternating RGB sub-pixel layout reduce viewing-angle light blocking while preserving touch accuracy.

High scroll rates trigger section condensation in a scrollable UI, cutting navigation effort on small screens while restoring detail when scrolling slows.

Differential signals from segmented reception electrodes cancel cathode re-transmission noise, improving touch accuracy during rapid temperature changes.

Different mesh structures and segmented display areas raise transmittance over embedded sensors while preserving display and sensing functions.

Deferred-acceptance matching links actual and predicted touch points to separate simultaneous users and improve touch trajectory accuracy.

Using a high-speed serial bus and CPU-based coordinate calculation cuts touchscreen response delay caused by slow touch-chip processing.

A segmented touch bridge and sub-bridge layout cuts parasitic capacitance, reduces DTX and ghost touches, and preserves transmittance.

Separate touch assemblies in display and touch layers preserve touch sensing in light-transmitting under-screen camera regions.

Separate command and data lanes let SSDs service younger reads during older writes, improving channel use and IOPS.

Alternating thin-line and protruding touch electrodes cut capacitive path load, shortening in-cell touch drive and detection time.

A display input sensor uses pad layout, insulating layers, and a transparent oxide pad to avoid laser reflection and preserve sealing durability.

Organic and inorganic sensor layers protect conductive patterns to improve impact resistance while preserving light emission and lowering reflectance.

Portrait and landscape location data let a peripheral detect host mode and switch button functions automatically, avoiding manual setup.

Alternating touch wirings with sub-signal wiring groups in the bending area saves border space, cuts interference, and lowers resistance.

Interactive GUI scheduling recalculates feasible appointments in real time as resources and constraints change, reducing disruption and improving utilization.

A single-screen display switches between abnormality and usage history views to speed fault diagnosis and reduce maintenance navigation.

A refractive-index-graded touch insulating stack cuts reflectance distortion in integrated touch displays by promoting destructive interference.

Preset motion laws let page module groups slide with compressed and stretched spacing, improving linkage and user feedback during swipes.

Grouped infrared transmitters and sequential receiver sets raise scan frame rates and cut touch position deviation during fast operations.

A tiled electrode layout switches between capacitive touch and inductive stylus sensing to cut panel thickness, noise, and layer complexity.

Tactile and UI feedback confirm pattern input on a touch panel without revealing the traced path, improving confidentiality and operability.

A graded planarization layer in non-display areas reduces parasitic capacitance variation and preserves touch sensitivity across the panel.

A 2D code drives automatic selection between sample color specification and color matching, cutting manual steps and user errors.

Symmetrical empty spaces and a rigid second layer absorb bending stress in fold areas, helping prevent cracks and extend display life.

A low-reflective window, Bi/Yb layer, and optical control stack cut glare while improving transmittance without polarizers or color filters.

An organic film covers the extended inorganic edge in the bezel to block heat conduction and crack propagation while enabling a narrower display border.

A segmented sensing layout and crack detection pattern around a module hole preserve touch uniformity while keeping bezel width low.

Dynamic interface standard switching cuts SSD heat and power during internal operations while preserving transfer capability when needed.

A detachable pusher between the side operator and switch keeps pen-side switching stable while allowing easier removal and overload protection.

Input-threshold gestures reveal context-relevant control sets faster, cutting menu steps, cognitive load, and display power use.

Variable-pitch routing and equal-length angled traces keep stylus signals uniform and improve edge detection in narrow-bezel sensor panels.

Create issue objects from whiteboard graphics through adaptive forms and API calls, reducing manual transfer during videoconferences.

Swipe-based control switching separates 3D object display from the operation panel, improving light field interaction clarity and ease of use.

Conventional MR interfaces limit spatial visualization; a multi-sided 3D portal switches scenes by orientation and queues data for seamless navigation.

A browser portal unifies applications across operating systems and servers, reducing app switching while filtering and restyling external data.

Draggable division lines adjust adjacent group timelines together, reducing repeated touch operations in resource allocation interfaces.

Static alerts can become outdated; dynamic notifications retrieve current action-item status and expose actions directly in the notification.

Compare first and second models by projecting entity data, scoring operational values with fuzzy inference, and reducing selection uncertainty.

Contact and separation events define the writing interval, so button presses are ignored during pen strokes to prevent unintended mode changes.

Meshed silver circuits replace ITO layers to lower surface resistance, improving signal transmission speed and touch sensitivity.

Touch force sensors detect input pressure to switch text input assistants, resolving the conflict between static settings and user adaptability.

Optical fibers route display light to soft keys, eliminating independent power sources and reducing mobile device energy consumption.

A tuning algorithm filters noise in active stylus signals using amplitude thresholding and temporal analysis.

Distance and time thresholds distinguish new touches from gestures, improving measurement precision while reducing device complexity.

A stylus transmits position and status data via a composite signal using frequency division over shared electrode lines.

Extending the touch panel into a side flap creates a thumb sensor that reduces hardware complexity and manufacturing costs.

Dynamic virtual operation keys track finger contact positions on the display to prevent accidental input stops caused by unintended finger movement.

An electronic device overlays task shortcuts on the current screen to execute commands, eliminating interface switching and reducing power consumption.

Different electrode patterns in adjacent sub-regions prevent consecutive light reflection, eliminating alternating dark and bright stripes on the display.

A control unit groups related setting items to allow users to update multiple values simultaneously through a single confirmation action.

Controlling the blind hole depth within the adhesive absorption capability eliminates bonding bubbles and improves light transmittance.

Synchronizing the detected stylus signal with a windowing function resolves asynchronous interaction challenges to enhance precision and control.

A touchscreen interface divides screens into subscreen areas to enable flexible one-hand control element switching via simple gestures.

Opposite polarization in stacked pyroelectric materials cancels temperature-induced noise, preserving press pressure sensitivity.

Readout circuitry accumulates and divides touchscreen samples into subsets to process valid touch inputs.

Inertial sensor fusion infers touch pressure levels on mobile devices without dedicated hardware.

A communication terminal captures instruction images and transmits coordinate information to control a processing apparatus.

An image editing application rigs multiple controls to a master control using relationships based on the image's characteristics.

A touch stylus design uses an intermediary stopper to decouple the force sensor from direct mechanical impacts.

Copying and moving graphical objects across multiple vehicle displays reduces configuration complexity while maintaining synchronized state information.

Touch interface controls adapt to contact intensity, displaying secondary options only when pressure exceeds a defined threshold.

Full pre and local sensing prevents coordinate loss during fast movements while optimizing display timing.

A display interface layout adjusts content size dynamically based on user scaling instructions.

Relocating first wirings into electrode gaps reduces border area while isolation lines prevent mutual interference.

Dynamic threshold evaluation differentiates touchdowns and liftoffs from movement, resolving tracking inaccuracies in capacitance sensing systems.

Segmented touch sensor areas apply higher edge thresholds to ignore holding fingers, preventing erroneous operations during large display use.

Capacitive sensors calculate palm forces to exclude saturated readings and estimate finger force.

An overlapped touch area distinguishes stationary and sliding inputs using time and distance thresholds.

Merges dedicated touch key electrodes with existing sensor layers to reduce part count and manufacturing complexity.

Link training logic initializes connections transparently to operating systems, resolving bottlenecks in upgrading I/O capabilities across multiple domains.

Segmented rigid pixel islands with conductive cutting structures reduce crosstalk and maintain hermetic sealing in stretchable displays.

A pressure detection unit and microprocessor adjust cursor movement speed based on applied force.

A touch controller extracts maximum signal values to determine presence.

A dual-touch screen system differentiates finger and stylus inputs using distinct detection panels.

A stylus uses dual signal generators and a controller to adjust the amplitude ratio of fixed-frequency signals for pressure sensing.

A controller calculates moving speed of an operation element on a touch panel to classify swipe actions based on relative velocity.

A flexible touch panel uses a dual-layer light-shielding structure to reduce production costs.

Shared electrode layers merge touch and pressure sensing functions to eliminate separate manufacturing steps that increase process complexity.

An annular dial keyboard enables character selection via swiping, resolving the trade-off between display space and operability on small screens.

Segmented selection regions and state preservation resolve time loss during file browsing while reducing interface clutter.

Convex and concave curved boundaries distribute mechanical stress to prevent cracks during bending while minimizing pattern visibility.

Auxiliary switch circuit outputs touch sensing and guarding signals to reduce resistance and capacitance loading in display panels.

A touch screen circuit connects photodiodes in parallel and LEDs in series to determine location.

A method maps coordinates between separate touch sensitive and display units to enable accurate cursor location.

An elastic insulating member separates intersecting electrode patterns, enabling accurate pressure detection while maintaining structural stability.

A touch input method calculates rectangle areas formed by initial and subsequent finger contacts to determine the active display function.

Segmented electrode units merge display and sensing functions, allowing users to independently switch specific regions between transparent and foggy states.

An optical compensation layer reconciles hue differences between etched and non-etched sensing electrode regions, eliminating chromatic aberration.