1. Knowledge and Understanding
Understand the main methodologies of dynamic systems theory and control of linear and nonlinear systems.
Gain knowledge of the mathematical structures and fundamental properties of dynamic systems, including input-state-output representations, canonical forms, and the concepts of controllability and observability.
Acquire familiarity with the fundamentals of aerospace and aeronautical control.

2. Applying Knowledge and Understanding
Apply controller synthesis techniques for linear time-invariant systems, including eigenvalue assignment and the design of optimal regulators (LQ and Kalman).
Use linearization techniques—particularly feedback linearization—for the control of nonlinear systems.
Design observers and control systems for aerospace applications, such as flight stabilization and satellite attitude control.

3. Making Judgements
Critically evaluate various control strategies based on the structural properties of the system.
Independently select the most appropriate methodologies for the analysis and synthesis of controllers, even in complex contexts such as aerospace systems.

4. Communication Skills
Communicate proposed solutions and obtained results effectively, including through written and graphical representations, in the analysis and design of control systems.
Use appropriate technical language to interact with other professionals in the fields of automation and control.

5. Learning Skills
Independently deepen knowledge of advanced topics in systems theory and automatic control, also in view of research or professional development.
Acquire the conceptual and practical tools needed to pursue further studies in the field of dynamic systems control, particularly in the aerospace domain.