Triaxial Acceleration Sensor Self-Adjustment

The patent performs calibration actions continuously during the sensor's operational life rather than only at manufacturing end. The calibration process is initiated automatically when specific conditions are met (e.g., device held stationary for sufficient time), allowing calibration to occur in advance of any potential drift without requiring dedicated calibration time slots.

The patent implements continuous calibration capability throughout the sensor's operational life. The calibration process can be executed multiple times at different moments during operation, ensuring that the sensor remains calibrated without requiring a single lengthy calibration session. This continuous approach eliminates the need to stop operations for calibration.

The patent employs a universal filtering approach that does not require adaptation to specific product scenarios. The same filtering algorithm can be applied across different applications and scenarios without requiring scenario-specific modeling. This universal approach simplifies the device complexity while maintaining measurement precision through robust statistical methods.

The patent implements self-adjustment capability where the sensor system automatically detects and corrects its own calibration drift without external intervention. The system monitors its own performance and initiates calibration procedures automatically when drift is detected, eliminating the need for complex external modeling and manual filter adaptation.

The patent implements feedback mechanisms where the sensor system continuously monitors its own calibration status and adjusts accordingly. The system detects drift conditions and automatically initiates calibration procedures based on real-time performance monitoring, creating a closed-loop system that maintains reliability despite temperature fluctuations and aging.

The patent transitions from static end-of-manufacturing calibration to dynamic calibration during operation. The calibration process adapts to changing operational conditions including temperature variations and aging effects. The system can perform calibration at multiple time points during the sensor's lifecycle, allowing it to dynamically compensate for drift rather than relying on a single initial calibration.