Inertial Sensors TRIZ Cases

See how an air-permeable capacitive sensor grid embedded in bedding wirelessly detects sleep st

See how an air-permeable capacitive sensor grid embedded in bedding detects sleep states and vi

See how segmented inflatable bladders adjust head and torso angles in response to real-time sle

See how a handheld tool uses sensors and actuators to detect unintentional muscle movements and

See how dual IMU sensors and motion generating mechanisms stabilize handheld tools for users wi

See how a folded paper chair with counterweight and accelerometer replaces mechanical adjustmen

See how an active chair uses tilt sensors to detect subtle seat lean around x and y axes, provi

See how a handheld tool with user-assistive device automatically measures food mass during eati

See how force sensors and inertial tracking in a handheld utensil automate nutrition intake mea

See how dual inertial sensors and motion-generating mechanisms stabilize handheld tools for tre

Sensors track unintentional hand motion and drive equal-opposite movement in a handheld tool to reduce tremor interference during daily tasks.

Baseline and real-time wearable data are compared to detect travel-related alertness triggers and send guidance to user devices or vehicles.

Baseline and real-time wearable data trigger alertness insights that user devices or vehicles can use for safer travel guidance.

Local biometric processing and feedback sensing reduce exposure and data loss when wearables share health data with external electronics.

Machine learning filters vehicle vibration noise from remote body-motion sensing to deliver comfortable, accurate in-car vital sign monitoring.

In-vehicle sensors flag likely passenger illness and trigger fleet cleaning or suspension to limit infectious exposure in ride sharing.

A metal-free biofuel cell powers a disposable sensor catheter, improving physiological measurement while simplifying disposal and reducing cost.

A biodegradable biofuel cell powers a disposable sensor probe, enabling accurate tract measurements with simpler handling and disposal.

Low-power motion and capacitive sensing activate high-power wearable sensors only when the device is on-body, extending battery life.

Low-power motion and position sensing wakes high-power wearable sensors only when the device is worn, extending battery life without losing responsiveness.

Real-time sleep progression data triggers lighting, sound, and scent changes to improve sleep continuity and waking conditions.

A controller disables the PPG sensor after bed entry and re-enables it at sleep onset to avoid light leakage while preserving vital-sign monitoring.