Sensor-Guided Isometric Exercise Positioning for User Alignment

The patent replaces manual mechanical adjustment with an automated actuator system that uses electrical signals to precisely position the loading interface. The actuator receives control signals from a control unit and automatically adjusts the distance between the user support and loading interface, eliminating the need for manual estimation while achieving precise positioning through electronic control rather than mechanical estimation.

The patent implements a feedback mechanism where position sensors detect the actual position of the loading interface and force sensors monitor the load applied by the user. This feedback information is sent to the control unit, which compares the actual position with the target position and adjusts the actuator accordingly to achieve precise muscle engagement and joint alignment, ensuring measurement precision through continuous monitoring and adjustment.

The control unit serves multiple functions: it receives target position inputs, controls the actuator for positioning, processes feedback from position sensors, monitors force sensor data, and adjusts parameters in real-time. By consolidating these diverse functions into a single control unit, the patent manages device complexity through functional integration rather than requiring separate dedicated components for each function.

The system performs self-adjustment through the automated actuator that responds to control signals without requiring manual intervention. The position sensors and force sensors continuously monitor the system state and provide feedback to the control unit, which automatically makes adjustments to maintain optimal positioning and loading, enabling the device to self-correct and self-regulate, thereby managing complexity through automation rather than manual operation.

The patent transforms the static loading interface into a dynamic component that can automatically adjust its position relative to the user support. The actuator enables the loading interface to move along the longitudinal axis, and the control unit dynamically adjusts the distance based on user-specific parameters such as body size, strength level, and exercise requirements, allowing the same device to adapt to multiple users with different physical characteristics through automated dynamic reconfiguration.

The system changes key parameters including the distance between the user support and loading interface, the amount of load applied, and the position of the loading interface based on detected user characteristics and exercise requirements. By dynamically adjusting these parameters rather than maintaining fixed settings, the device achieves adaptability to accommodate users of varying size and capability while managing complexity through automated parameter optimization rather than multiple fixed configurations.