Input/Output Processes For Data Processing TRIZ Cases

See how a virtual token board replaces handwritten tokens with visual time and space scales to

See how automatic accessory identification and database comparison reduce instruction selection

See how a portable blender integrates a transparent display panel and touchscreen interface wit

See how a layered sensor-light assembly embeds touch and display into non-glass surfaces using

See how a portable blender integrates a transparent touchscreen display panel and rechargeable

See how a transparent display panel integrated into a blender container maintains visibility du

See how a portable blender integrates a transparent touchscreen display and rechargeable batter

See how automatic accessory detection and database matching reduce user input and instruction c

Rear camera images are projected through the windshield HUD as a synthetic light field to improve rear visibility with less hardware and glare.

Non-visible light sensing distinguishes a driver's hand from swinging mirror-hung objects, raising touch sensitivity only when proximity is confirmed.

Non-visible light and reflected signal analysis distinguish a driver's hand from swaying hanging objects, reducing false touch detection in vehicles.

During handsfree calls, detected operating states stop voice from reaching other processors, protecting privacy without disabling dashcam recording.

Swipe-based view switching lets drivers move between front, rear, side, bed, and top camera feeds with clear visual cues.

Sensor-triggered visual cues show drivers which vehicle control to actuate and when, improving control familiarity without continuous display distraction.

Proximity sensing distinguishes hand approach to multiple agricultural machine inputs, enabling correct function selection before contact.

A touch multiplexer shares fewer driving circuits across more sensing lines, cutting display cost while shielding the MUX from static electricity.

Interactive presentation models and configurable links make complex data center power distribution easier to visualize, edit, and maintain.

Batching RET commands across multiple antennas cuts single-site adjustment time while preserving per-antenna status feedback for troubleshooting.

Visual symbols on the head-up display show unassigned steering-wheel switch status and touch position, reducing driver confusion and gaze shifts.

A steering-wheel touchscreen and embedded CAN interface retrofit vehicle controls for users with limited fine motor skills.

Overlay marks remain briefly after a moving body leaves the vehicle display area, reducing sudden disappearance and occupant unease.

Selective reflection-adjusting and inorganic absorption layers raise transmittance over an under-display module while preserving display quality.

By projecting content only in the driver's target view area, this HUD cuts power use, reduces distraction, and extends display element life.

Beam splitters and transparent touch interfaces create a shared floating 3D vehicle image while supporting passenger-specific input and annotation.

Alternating sensing areas with different electrode opening patterns raise display input sensitivity while preserving reliable user input detection.

A grounded additional electrode overlapping the sealing member cuts EMI from touch sensor lines while improving capacitance balance and sensing.

A ground pattern overlapping the dam and encapsulation layer redirects EMI away from sensing electrodes, improving touch accuracy and reliability.

Multiple operable regions on a split-screen boundary let users resize three aligned panels dynamically with simple drag input.

Auto-generated state transition tables flag omitted states, events, and transitions to improve FSM model completeness and reliability.

Irregularly dispersed inorganic nano-tubes in a planarization layer cut reflection and suppress rainbow mura without lowering display transmittance.

Touch and usage context drive real-time antenna parameter changes to maintain wireless performance in small metal wearable devices.

Selective floating and power coupling of the receiving antenna reshapes tip energy so one touchscreen firmware can detect multiple styluses accurately.

A patterned nucleation-inhibiting coating forms discontinuous metal particles that absorb visible/UV light while transmitting IR/NIR.

Predicts where stitched image boundaries will stop in a rotatable 3D surround view and shifts them away from conspicuous display regions.

Peripheral touch sensing keeps mirror controls reachable without blocking the rearview area or interfering with electrochromic operation.

Batching Remote Electrical Tilt commands lets multiple antennas be adjusted at once, cutting site-by-site configuration time and easing troubleshooting.

Seat-position sensing and mirror interpolation keep the driver's field of view consistent as seating changes, reducing blind spots.

Historical-use and accessibility scoring help map an auxiliary vehicle input to frequently used hard-to-reach functions for easier control.

A ring-shaped shielding layer and integrated touch structure enable a full-screen rearview mirror display while reducing thickness and weight.

Distributed control stations coordinate beam selection, tracking, and scan control across large phased array volumes with real-time feedback.

Back-surface touch sensing keeps mirror controls off the viewing area while preserving electrochromic dimming and added signal functions.

Graphical trace snapshots and a time slider make changing drive synchronizations across distributed control programs easier to diagnose.

A vehicle-mounted drone uses ECU and remote control data to escort operators in darkness or bad weather while adapting flight to vehicle status.

A detachable two-part pen tip places electrodes closer to the writing surface to improve stylus tilt sensitivity and reduce abnormal writing.

Natural-language operator queries drive semantic data retrieval and dynamic HMI layouts, reducing rigid upfront engineering in plant control.

Synchronization links let connected process cards share parameter changes automatically, cutting repetitive GUI setup during data analysis.

Real-time parent-child tracking across production stations links each unit to quality status, helping detect defects early and reduce scrap.

Touchscreen timeline icons let operators adjust thermoforming cycle steps visually, reducing setup errors and exposing anomalies in real time.

Separating welding control and human-machine computing units with shielded, isolated links cuts EMI-related interface malfunctions.

Map-based UAV group selection lets one operator command multiple aircraft at once while tracking acknowledgments and retrying failed transmissions.

Automatic GUI-based welding setup calculates voltage and wire feed ranges from material thickness, reducing manual errors while keeping operator control.

Shifted process time axes make planned intervals perpendicular, so deviations and branched lot timing are easier to spot.

A draggable symbol adapts to surface orientation in a 3D UAV view, enabling accurate waypoint selection with fewer inputs and lower collision risk.

Alternating bias and modulating voltage circuits lets an in-cell touch panel keep the VGH-VGL limit while extending touch-period operation.

Guard-domain touch sensing uses shielding electrodes and split power domains to cut stray capacitance and improve touch signal range and accuracy.

Separating the user interface controller from the inverter housing cuts EMI-related faults while preserving simple operation and transport protection.

Graphical bands and auto-calculated voltage and wire feed ranges simplify welding setup and reduce manual parameter selection time.

Adaptive uplink amplitude and signal timing support pen and finger touch while reducing EMI noise and power consumption.

Phase changes during non-detection periods help electrostatic touch sensing separate noise from real input and improve detection accuracy.

Dummy panel pads let touch connection wires pass between pad regions, preventing PCB shorts while keeping a compact display layout.

Modeling display diffraction guides sub-pixel placement that cuts flare, blur, and sensor over-saturation in under-display sensing.

Differentiated reflective and light-blocking patterns cut external light reflectance while preserving display efficiency in OLED panels.

A tapered conductive core rod with a protective covering suppresses signal waviness while preserving soft writing touch and tilt accuracy.

Firmware-selected driven shield balls isolate drive and sense paths in dense BGA touch controllers, cutting crosstalk across aspect ratios.

Mesh openings aligned with sub-pixels increase transparent area under the display, improving optical sensor image detection quality.

Interactive hidden watermarking reveals a secondary image during zoom or scrolling to verify NFTs beyond simple screenshots.

Adjusting one scoring shape while automatically rescaling others keeps totals constant, making multi-attribute input faster and more accurate.

Multi-sensor signal features and machine learning classify touch location and intent on HMI surfaces despite gloves, moisture, and hardware variation.

Different pixel and touch electrode densities by sensor region improve transmittance, reduce boundary artifacts, and support full-screen displays.

A highlight indicator preserves menu context during screen transitions, reducing cognitive load in small-screen GUI navigation.

Depth-direction gesture triggering replaces hover-based selection to cut non-contact input time and reduce misoperations.

When a display backlight times out, tab-specific locking prevents personal menu screens from reappearing without authentication.

Pause-based segmented capture shows clip IDs for instant preview and deletion, helping users judge quality before finishing the full video.

Varying encapsulation thickness and overlapping touch electrodes improve transparent display sensitivity without blocking light-emitting areas.

By routing touch wires through different films in the display region, this case cuts bezel wiring space while preserving touch performance.

A detachable rear weight shifts the pen's center of gravity, making fine drawing and large-character input easier without complex internals.

Stacked sensor wiring in the non-active area preserves electrical connection while reducing bezel visibility in touch display panels.

Menu-linked connection information lets an MFP switch external service accounts without repeated authentication, improving operating efficiency.

Alternating electrode units and conductive bridges smooth signal distribution in in-cell touch panels, improving stylus linearity and touch location accuracy.

Differential transmitter and receiver electrode pairs suppress noise while improving touch, large-object, and surface proximity detection.

A separated capacitive touch structure and shielding layer improve Micro-LED touch accuracy while lowering panel process complexity and cost.

Capacitive coupling in a shared sensor layer enables precise pen and touch input without adding a separate digitizer, thickness, or weight.

A rigid tubular member protects the circuit board, helping an electronic pen stay slim while resisting bending and breakage.

Connection wiring and a compensation pattern preserve touch-line continuity and input accuracy around a sensor opening.

Capacitance-based calibration sets separate touch thresholds for fingers and gloves, improving touch panel operability for each user.

Mesh conductive patterns with varied widths preserve input sensing while improving OLED emission efficiency and reducing external light reflectance.

Width compensation offsets coffee-ring-driven metal line narrowing near display edges, preserving touch sensitivity and line uniformity.

Layer-based effect editing lets users adjust, hide, or delete individual effect objects for more refined image enhancement with less interface burden.

During voice playback, users assign mixed emotions and intensities by timing, enabling nuanced synthesized speech with less parameter-setting effort.

Dummy electrodes cover touch-electrode gaps to block light leakage, hide visible lines, and improve display panel reliability.

An asymmetric T-node metal mesh layout cuts light diffraction, grey spots, and moiré while maintaining conductivity in touch panels.

Drag-and-drop chart zones and partial real-time updates let users iteratively build short run control charts without waiting for full reconfiguration.

Synchronized class video across networked exercise machines enables remote social workouts, cutting gym travel, emissions, and commute time.

Two pressure sensor types with overlapping touch regions extend sensing range, remove blind spots, and improve touch pressure precision.

Photogrammetry and AI turn detected real-world objects into editable 3D virtual objects, reducing manual modeling time and library browsing.

Organic patterns with tuned refractive indices redirect side-emitted light forward, boosting display luminance and touch sensitivity.

A single scrolling menu page replaces multi-screen hierarchy navigation, speeding conversational POS ordering and improving accuracy.

A fixed-plane gimbal layout creates a compact redundant joystick that preserves control after failures while supporting one-, two-, or three-axis setups.

Dragging windows to screen edges preserves multitasking on small displays while making overlapped windows easier to switch and use.

Conditional baseline initialization uses max-min touch data to cut ghost touches and avoid unnecessary power use in touch displays.

Dam and support structures stabilize the polarizing plate at the display edge while preventing planarization overflow and boundary defects.

Thin acrylic substrate and adhesive layers cut light scattering to preserve OLED black-white contrast in hot, humid conditions.

Different driving periods and signal thresholds separate finger, palm, and stylus inputs to improve touch coordinate accuracy.

Opposite-phase offset signals through dummy electrodes cut EMI from display sensing electrodes while preserving stable touch input.

A controller adapts touch report intervals to display refresh changes, improving coordinate accuracy while avoiding fixed high-rate sensing.

Multi-layer and bent sensing lines improve touch sensitivity while reducing visual interference in integrated display touch panels.

A dual touch module layout lets one integrated chip handle multiple touch areas, cutting chip pads and space as touch panels grow.

Tracks avatar spatial telemetry in 3D voxels to place digital media where target users engage most while limiting distraction.

A shielding grid with wider grounded wires and equalized resistance reduces OLED touch noise and stabilizes active-pen signals across the panel.

Grooves in interlayer insulation and isolation regions release thermal stress, preventing layer disengagement and display defects.

Differential drive, banked routing, and dielectric isolation cut touch-screen noise and parasitic capacitance for more reliable sensing.

Shielding wirings switched by thin film transistors suppress capacitive coupling during lighting tests, preventing bright lines and false wire checks.

A two-layer bank with protruding sidewalls enables maskless OLED formation, direct power-line connection, and reduced gas-induced lifting.

Bridge placement between adjacent sub-pixels reduces light-path interference while maintaining touch sensitivity and light emission efficiency.

Separating gaze-triggered focus and brightness actions by input type prevents unintended target switching and preserves user intent.

During display-area movement, predetermined content is swapped to a fixed image to cut CPU load and keep scrolling visually responsive.

Stacked bonding-pin metal sub-layers stay unexposed during etching, preventing over-etching and preserving uniform signal transmission.

Local capacitance features and machine learning improve electronic pen position and tilt estimation while reducing processing load.

An integrated light-absorption and insulation stack cuts OLED panel reflection and module thickness, improving foldability without losing touch function.

Stored calibration data keeps projector and sensor alignment accurate when virtual buttons are repositioned in AR assembly work areas.

Segmented signal blocks let a position indicator send large IDs and status data without lowering position sampling frequency.

Interleaved column electrodes create bi-linear capacitive sensitivity without interpolation resistors, improving touch linearity and lowering fabrication cost.

Continuous stylus downlink monitoring with I/Q phase extraction keeps touch-controller timing aligned despite uplink interference and signal loss.

Signal correction across single-layer touch electrodes improves EMR stylus sensitivity, SNR, and position accuracy in thinner devices.

Calendar events and user work descriptions are combined in a chat interface to draft timecards with less manual entry and fewer recording errors.

Holding a key cycles related special characters at the text cursor, reducing typing disruption and visual attention shifts.

Mirror-symmetrical elastic electrodes and two shared terminals enable high-resolution touch mapping and real-time movement sensing during stretching and bending.

An intermediate-potential supply unit smooths transmission-driver transitions, reducing power consumption without switch-related parasitic capacitance.

Separate operation inputs let gaze select imaging settings before brightness processing, preventing unintended focus-target switching when the user looks elsewhere.