| 1. |
Introduction of the course. What is Control? |
Investigate what control means in a practical control system |
190minutes |
| 2. |
Mathematical modeling of systems |
Physical and mathematical modeling of systems. Review the definition of derivative, integral and differential equations. |
190minutes |
| 3. |
Transfer functions |
Review of Laplace transforms and ODEs |
190minutes |
| 4. |
Response of systems |
Review of Laplace transforms and inverse Laplace transforms, and how to use them in solving ODEs |
190minutes |
| 5. |
Properties of system response |
Try to use MATLAB/Simulink to plot system states |
190minutes |
| 6. |
Response of second-order systems |
Try to understand properties of second-order systems with different parameters in real applications |
190minutes |
| 7. |
Poles and stability |
Check the definition of stability and its meaning in real systems. Confirm it using MATLAB/Simulink simulations |
190minutes |
| 8. |
Stability criteria |
Review of polynomials with real coefficients and the zeros |
190minutes |
| 9. |
Review and mid-exam |
Review and discussion |
190minutes |
| 10. |
Steady state errors with respect to reference signals |
Check the definition and the meaning of steady state errors |
190minutes |
| 11. |
PID control |
Investigate the history and the structure of PID control |
190minutes |
| 12. |
Frequency response analysis: Vector locus |
Check the definition and the meaning of gain/phase diagrams, and try to plot them in MATLAB/Simulink |
190minutes |
| 13. |
Frequency response analysis: Bode diagrams |
Investigate the definition and meaning of Bode diagrams |
190minutes |
| 14. |
Final exam and Discussion |
Review of the entire course with examples and exercises |
190minutes |
| Total. |
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2660minutes |