| 1. |
Course introduction and basic knowledge on the area of digital control |
Review of calculus and linear algebra |
190minutes |
| 2. |
Dynamical control systems, Laplace transform and transfer function |
Review of calculus, linear algebra and Laplace transform |
190minutes |
| 3. |
Analysis of continuous-time system analysis |
Review of differential equations, analysis in modern control theory |
190minutes |
| 4. |
Design of continuous-time system analysis |
Review of differential equations, feedback design in modern control theory |
190minutes |
| 5. |
Z-transform, discrete-time system modelling and transfer function |
Review of difference equations, iterative calculation |
190minutes |
| 6. |
System stability, Lyapunov stability theory |
Review basic calculus, matrix eigenvalue and iterative calculation |
190minutes |
| 7. |
Mid-term report and review/exercise |
Review/exercise and discussion |
190minutes |
| 8. |
Controllability and observability |
Review of matrix rank in linear algebra |
190minutes |
| 9. |
State feedback: stabilization |
Review of stability and matrix eigenvalues |
190minutes |
| 10. |
State feedback: pole assignment |
Review of stability, matrix eigenvalues and polynomials |
190minutes |
| 11. |
Simulation Exercise with MATLAB/Simulink |
Review of MATLAB programming |
190minutes |
| 12. |
Observer design |
Review of observability, matrix rank and estimation error equation |
190minutes |
| 13. |
Optimal control |
Understand the meaning of cost functions, and review of mathematical programming |
190minutes |
| 14. |
Final report and review/exercise |
Review and exercise of the whole course and discussion |
190minutes |
| Total. |
- |
- |
2660minutes |