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Vector control of induction motors with Kalman filter is a sophisticated approach used to achieve high-performance motor control without relying on physical sensors. This method leverages the Kalman filter's estimation capabilities to provide accurate rotor flux and speed information, enabling precise torque and speed regulation.
In vector control (also known as field-oriented control), the stator currents are decomposed into torque and flux components to mimic the behavior of a separately excited DC motor. However, sensorless implementations eliminate the need for speed encoders, reducing cost and maintenance issues. The Kalman filter plays a key role here by estimating unmeasured states in real-time while filtering out noise and disturbances.
The Kalman filter operates recursively, predicting the motor's state based on a dynamic model and then refining these predictions using available measurements. In induction motor drives, it helps compensate for parameter variations and improves robustness against load disturbances. This makes vector control more reliable in applications such as electric vehicles, industrial automation, and renewable energy systems.
By integrating the Kalman filter with vector control, engineers achieve better dynamic response, reduced sensor dependency, and improved efficiency—making it a preferred solution for modern motor drive systems.