Date Topic Suggested Readings
January 14 Feedback Control Systems Chpt. 1, pp. 1-17
  Open-loop vs. closed-loop control, rise time, steady-state error, stability,  
  overshoot, disturbance rejection.  
     
January 17 Dynamic Models  Chpt. 2, 19-26,35-38
     
     
January 21 Performance Specifications: Part I  Chpt. 3, pp. 118-131.
  Rise time, peak time, settling time, damped frequency, % overshoot  
     
January 24 Performance Specifications: Part II  Sect. 3.5, pp. 131-138
  Damping ratio, undamped natural frequency.  
   
January 28 Homework #1 Due   
     
January 28 Effects of Feedback  Sect. 4.1, pp. 167-176
  Sensitivity to parameter variations, disturbance rejection.  
     
January 31 Steady-State Errors  Sect. 4.3, pp. 200-206
     
February 4  Homework #2 Due  
     
February 4 A Motor-Speed Control System:  Notes
  Time Domain Analysis  
     
February 7 PID Controllers Sect. 4.2,pp179-187,196-200.
  Design of proportional-integral-derivative controllers  
     
February 11  Stability Sect. 4.4, pp.212-223
  The Hurwitz instability test, the Routh-Hurwitz stability test, relative stability.  
     
February 14 Design Project #1 due: Modeling, Simulation, and Analysis  
     
February 14 Root Lucus Sect. 5.1-5.3, pp. 243-281
     
February 18 No Class on February 18(Monday Schedule).  
     
February 21 Homework #3 Due  
     
February 21 Root Lucus Methods Sect. 5.1-5.3
     
February 25 Root Lucus Design Sect. 5.1-5.3
     
February 28 Homework #3 Due  
     
February 28 Frequency Response Methods Sect. 6.1,6.1.1,pp 337-357, Sect. 6.4, pp375-383
  Bode plots, gain margin and phase margin.  
     
March 4 Design Project #2 Due: Root-Locus Design  
     
March 4 Relative Stability anc Bode Plots Sect. 6.1.,6.1.1,pp 337-357
  Performance characteristics in the frequency domain  
     
March 7 Exam 1 All Material up until February 28 (HWs#1-4)
     
March 10-14 Spring Break  
     
March 18 Connection Between the Frequency Domain and the Time Domain Sect. 6.1, pp. 338-344, Sect. 6.4, pp 375-379
  Resonant frequency, resonant peak, bandwidth  
     
March 21 Design and Compensation Sect. 6.7, pp. 389-412
  Phase-lead compensator design  
     
March 25 Homework #5 Due  
     
March 25 Phase-Lead Compensation Sect. 6.7
  Design of phase-lead compensators to meet performance specifications in the time and frequency domain  
     
March 28 Phase-Lag Compensationnbsp; Sect. 6.7.3-6.7.5, pp. 400-412
  Design of phase-lag compensators to meet performace specifications in the time and frequency domain.  
     
April 1 Homework #6 due  
     
April 1 PID Compentsation Sect. 6.7.5, pp. 407-412
  Lead-Lag and lag-lead compensators  
     
April 4 State Variables  Sect. 7.1-7.2.1, pp. 469-485
  State variable concepts, state variable representations.  
     
April 8 Design Project #3 due: Frequency Domain Design Methods   
     
April 8 State Variable Representations  Sect. 7.1-7.2.2, pp.469-486 
  Comparing state variable representations, transfer function matrices, canonical forms.  
     
April 11 Controllability Sect. 7.2.1, pp. 472-479
  Control canonical form, the controllabilty matrix  
     
April 15 Homework #7 due  
     
April 15 Full-state Feedback Controllers Sect. 7.3.pp. 496-497
  Feedback controller design  
     
April 18 Reference Inmput with Full-state Feedback  Sect. 7.3.2,pp.502-505
Sect. 7.5,pp.515-521
  Reference imputs, a simple state estimator  
     
April 22  Homework #8 due  
     
     
April 22 The Observer Canonical Form  Sect. 7.2, pp. 479-480
Sect. 7.5, pp. 515-521
  The Observability matrix, observer design  
     
April 25 Observer Design Sect. 7.5, 7.6, pp. 515-540
  Reduces-order observers, combined observers and controllers  
     
April 29 Exam 2 Frequency Response and State-Space Methods (Hws#5-8)
     

Penalty for late submissions: 1 day late 10%, 2 days 20%, 3 days 50%; no credit beyond 3 days.

* If any class days are cancelled due to weather or emergencies, Exam 2 will be held during Final Exam Week.