
Visualize state space systems with block diagrams, derive x dot = Ax + Bu and y = Cx + Du, and relate observability to state estimation via the observability matrix.
Explore the conceptual Kalman filter, fusing a priori model predictions and sensor measurements to yield an optimal corrected state estimate with quantified uncertainty.
Explain Kalman filter basics in a state-space framework, detailing covariance matrices P and Q and measurement noise R, and show how the Kalman gain fuses predictions with measurements.
Apply an extended Kalman filter in MATLAB to estimate the battery state of charge with a combined model. Generate data, linearize the model, and implement the EKF to track charge.
Learn how to implement the extended Kalman filter in MATLAB for estimating the state of charge, using prediction and correction steps, covariance matrices, and process and measurement uncertainty.
Refines the GA optimization process in MATLAB by tuning population and generation counts. Tests with x parameters and compares model outputs to experimental data using plots to assess convergence.
This course covers the details of how to develop optimization and state estimation algorithms and apply them to real world practical applications. The course covers the following topics: