Time-Pieces With Integrated Devices TRIZ Cases

Broadband laser, DBR grating, and photodetector integration enables compact non-invasive blood sugar sensing in wearable electronics.

A step motor rotates a wearable ring on the charger to correct coil misalignment and enable efficient inductive charging.

Folding-angle sensing triggers camera icons on a connected external display, reducing manual control steps in foldable devices.

A reversible crown-mounted module detects watch separation, preserves aesthetics, and enables theft alerts and geolocation.

A split wearable band with embedded electronics, shielding, and a cinch fit improves neuromuscular signal sensing without added bulk.

A rotating watch control switches among dense track points without screen taps, improving location selection accuracy on small displays.

Machine-learned suggestions and larger keyboard regions reduce errors and keystrokes during low-precision input on constrained devices.

A staged alert sequence uses vibration, GPS sharing, and audio recording to speed response while limiting threat escalation.

A segmented touch panel distinguishes display touches from bezel wheel inputs, preventing unintended results during simultaneous contact.

Wrist sensing limits unwanted wearable touches when the display is out of view.

A three-area input sensing layout uses differentiated nodes and patterns to preserve touch accuracy across complex active areas.

Shielding component directs electromagnetic signals from a sensing coil, reducing interference from skin conditions and improving measurement accuracy.

Electronic timepiece operation receiving units dynamically reassign functions via Bluetooth communication, resolving limited button availability constraints.

Concentric icon regions reduce bezel rotation time by organizing application sets radially on limited displays.

Merging the display layer and sensor electrodes into a single structure eliminates component count while enabling ECG and bioimpedance detection.

Replacing strain gauges with a compliant member and magnetic sensor eliminates mechanical non-symmetries, improving measurement accuracy.

An RF resonator circuitry generates electromagnetic fields to detect user input entities without physical contact.

A rotatable wheel drives a circular user interface to select and rearrange data elements on small screens.

A wearable fingerprint sensor assembly integrates a conductive waterproof film to maintain water resistance while expanding the measurement area.

Segmented calibration processing allows mode switching between horizontal and vertical measurement modes to resolve accuracy complexity trade-offs.

Segmenting the annular antenna element via notches prevents frequency deviation during miniaturization.

Switching first detection electrode impedance between low and high states balances touch sensitivity with power consumption.

Magnetic field sensors detect crown rotation to resolve manipulation precision and efficiency trade-offs on compact screens.

An accelerometer detects user motion to trigger automatic calibration of an air quality sensor within a sealed cavity, eliminating manual recalibration steps.

An electronic timepiece updates predicted positional information from an external device before its effective period expires.

Transparent conductive polymer antenna resonator printed on watch glass extends microtransponder reading distance without bulky external components.

A watch microphone uses a bracelet sound guide channel to direct acoustic waves toward the sensor.

A physical crown component converts rotation and push movements into electrical signals to navigate user interface objects on small form factor devices.

A satellite receiver dynamically stops signal acquisition when positioning accuracy meets requirements.

Segmented notification interface with dedicated operation area enables quick content browsing on small wearable screens.

Segmented fan-shaped and concentric ring electrodes maintain signal stability across varying lengths, resolving resolution issues in circular watches.

Side-surface touch sensors resolve the contradiction between compact device size and input accuracy by expanding the interaction area beyond the front screen.

A movable display actuated by a magnetic coil generates sound waves underwater.

A wearable security watch monitors heart rate to automatically detect distress and trigger emergency alerts.

Detecting arc motion on a touchscreen enables single-handed scrolling, resolving the trade-off between device portability and ease of interaction.

Mobile terminal detects external device proximity to display status icons, resolving the trade-off between multi-device versatility and user convenience.

A system merges photoplethysmographic and electrocardiographic signals to determine cardiovascular pulse frequency.

An electronic device adjusts functions based on detected user behavior patterns from stored life logs.

Processor corrects optical sensor signals to reflect actual rotation, resolving sensing errors caused by varying rotation speeds.

A wearable mobile terminal captures machine-readable codes and decodes data for simultaneous display across connected user computing entities.

Integrating biosensors into the wristband resolves device complexity by consolidating health monitoring functions without adding separate wearable units.

A smart watch uses machine learning to classify physical activities into rhythmic and non-rhythmic categories based on accelerometer data.

A timepiece updates predicted positional information via an external communication unit when elapsed time from a valid period meets a predetermined condition.

Segmenting input information and identification codes prevents unauthorized access to sensitive data while maintaining automated input convenience.

A processor adjusts a touch detection region based on hold time to distinguish selection intent from cancellation gestures.

Capacitive touch sensors embedded in wearable housing replace mechanical buttons to resolve industrial design flexibility and input precision trade-offs.

A reconfigurable wearable health monitor uses an alignment feature to position antennas over target veins for accurate signal detection.

A wearable location tracking device transmits real-time position data to a remote monitor unit via wireless communication.

A diving computer uses a programmable dot matrix display to arrange dive parameters.

Segmented housing and circuit assemblies allow targeted component replacement, reducing user expenditure while restoring device reliability.

A rotating frame integrates physiological monitoring electrodes with conductive members to enable direct user interaction without screen contact.