Input/Output Processes For Data Processing TRIZ Cases

A passive trackball uses paired magnets to encode motion for magnetic sensing, cutting power needs, weight, and failure-prone components.

Linear members between sensor electrodes stabilize the pen tip on flexible electronic paper, preventing waving and improving drawing precision.

Overlapping sensor and display electrodes enable precise pen input without a separate digitizer, preserving thinness, low weight, and flexibility.

A detachable core body and surrounding electrode keep the pen thin while improving capacitive tilt sensing and reducing writing trace waviness.

Integrated touch and electromagnetic electrode layers thin the display stack while preserving pen position sensing and display visibility.

Segmented and stacked stylus tip electrodes improve capacitive coupling, reduce interference, and sharpen touch or proximity detection.

Adjusts pen contact within an allowable range around on-screen objects to simplify accurate selection and drag operations for novice users.

Shielding lines placed between OLED touch and data leads cut coupling capacitance, improving touch response and display quality.

A movable obstruction member and selector let one button be enabled or blocked, preventing accidental presses while supporting configurable functions.

A tapered cover layer and stepped encapsulation improve edge sealing while reducing spots, smudges, and distortion at display borders.

Shared gate-layer touch lines and a transparent electrode enable in-cell touch without sacrificing display transparency or adding process cost.

State-dependent filtering stabilizes touch-panel press values under vibration, reducing false press and release detections.

Per-electrode baseline correction tracks temperature-driven capacitance drift to prevent false touch detection without extra sensing hardware.

User-triggered transparency or resizing exposes main-window areas hidden by an always-on-top sub-window without closing it.

A ferrite-core multilayer stylus and integrated touch sensor patterns improve passive pen accuracy while reducing signal attenuation and panel thickness.

By moving the touch unit to the non-pixel region and multiplexing the gate as a touch capacitor, the design cuts crosstalk and improves signal-to-noise ratio.

Segmented metal electrodes and a dielectric plastic cover improve capacitive field coupling for more accurate VR and AR hand detection.

Custom GUI-defined workflow connectors detect enterprise-specific triggers and run cross-device actions without third-party workflow software.

Multi-view image matching and neural damage detection speed vehicle inspection while reducing manual variability and inconsistency.

Character order selection replaces software keyboard cursor movement, simplifying text entry while helping protect input characters from unauthorized access.

A CXL switch and independent management controller let multiple data processing systems share peripheral devices while easing space, power, and connection limits.

When uplink signals are lost to noise, the pen switches data transfer to wireless while maintaining position signals to avoid drawing interruptions.

A layered touch electrode layout embeds a dummy electrode and shared metal lines to cut overlap, lower power use, and reduce short-circuit false alarms.

An elastic layered sheet matches friction-vibration behavior to reproduce pencil-on-copy-paper feel on a position detecting sensor.

Overlapping source-drain and touch metal wiring improves power connectivity while reducing layer interference in flexible OLED and QLED displays.

Varying trace widths and conductive-layer through holes equalize resistance and parasitic capacitance, improving touch accuracy.

Spaced sub-sensing electrodes and shared signal lines maintain accurate touch detection in flexible displays under bending or folding.

A bag-shaped protective film and stacked electrodes make pen position sensing thin, portable, and resistant to external force.

A touch-triggered threshold change helps a position detection circuit suppress false stylus signals caused by hand or finger contact.

Split touch islands and peripheral switching circuits cut coupling noise, improving large-panel touch accuracy and active pen sensing.

Signal correction across single-layer touch electrodes improves stylus position accuracy, sensitivity, and palm rejection in thinner touch panels.

Software-guided angle, DPI, and sensitivity changes keep pointing accuracy consistent from close to far target ranges.

Magnetometer measurements are mapped to interaction surfaces at different distances, improving user-borne device tracking despite tolerances.

A movable pen head and dual strain electrodes on a cantilever plate cut trigger force, reduce nib wobble, and improve touch sensitivity.

Angled touch and data pin regions in a TDDI chip raise touch-display integration and improve signal routing on the panel.

Holder-mapped reagent icons let operators check residuals, expiry, and measurements together, cutting manual workload and analysis interruptions.

A timed screenshot waiting state plus closed-figure stylus input captures only the intended screen region and avoids accidental triggers.

Force-sensitive strain sensing in a stylus eraser enables graded touchscreen handwriting removal while reducing accidental activation.

Adjustable row boundary lines let users refine text selection ranges, avoiding unwanted characters and reducing copy steps.

Separating metal routing lines from transmission areas preserves display transmittance while improving touch signal reliability and response speed.

Repeat-key mapping by VCD keeps character-string entry consistent across desk switches, even when OCR recognition fails.

By keeping disconnected touch-grid parts away from pixel openings, this case reduces light leakage and metal grid visibility at wide viewing angles.

Ultrasonic sensing with a PVDF piezoelectric layer detects touch through metal housings, overcoming capacitive interference on conductive surfaces.

Multiple downlink frequencies let the stylus sensing circuit choose a noise-free signal path and maintain accurate detection under interference.

A touch planarization film on the encapsulation slope cuts routing-line parasitic capacitance and improves touch sensing uniformity.

A guided GUI shows only relevant experiment steps while preserving menu path context to cut navigation errors and workflow time.