Lectures related to Control and Estimation

Explores state-space representation, controllability, observability, and regulator calculation using the Ackermann method.

Covers the basics of state-space representation and explores transformations to different forms.

Explores the Model Reference Method for designing PID regulators and cascade controllers for complex systems.

Covers the design of a regulator and state estimator for optimal control.

Covers stability, poles, zeros, and control in dynamic systems, emphasizing the importance of observability.

Covers the principles of feedback control systems and their applications in various fields.

Covers the structure theorem for state-space representations and companion forms.

Explores weight design and stability analysis in multivariable control systems, emphasizing Lyapunov theory and LQR stability.

Explores the shift from continuous to discrete control systems, focusing on the challenges and benefits of digital implementation.

Explores full state feedback control design, focusing on pole placement and linear state-feedback controller design for systems like a pendulum.

Explores stability, sensitivity, tracking performance, and regulation error in control systems.

Explores Infinite-Horizon Linear Quadratic (LQ) optimal control, emphasizing solution methods and practical examples.

Explores closed-loop control systems, PID regulator design, and performance analysis.

Covers the design of observers in control systems and the computation of state feedback controllers.

Explores Linear Quadratic optimal control theory, covering FH-LQ and IH-LQ problems and the importance of observability in control systems.

Covers the design and analysis of multivariable control systems, focusing on stability and zero steady-state tracking error.

Explores observability, governability, state regulators, and canonical forms in dynamic systems.

Covers the Nyquist criterion for stability analysis in control systems, using the Nyquist diagram to determine closed loop poles.

Explores Networked Control Systems, addressing packet dropouts, network delays, stability, and control laws for system boundability.