You can download a .pdf version of the course syllabus.
Time: Tuesday and Thursday, 5:55 - 7:10 p.m., Robinson,
Room B-220, Dr. Beale
Graduate Teaching Assistant: Christopher Bayliss
Office Hours: Tuesday, 8:30 - 10:30 a.m., Sci. & Tech. II, Room 265
Prerequisites: Grade of C or better in ECE 360/220 or POI
Text: Modern Control Engineering, 4th Edition, K. Ogata, Prentice Hall, 2002, Chapters 1, 3, 5 - 9
Learn the purposes, advantages and disadvantages, terminology, and configurations of feedback control systems.
Learn ways of classifying, measuring, and analyzing the stability and performance properties of feedback control systems.
Learn various classical frequency domain and time domain techniques for designing compensators in order to improve performance in feedback systems.
Prerequisites by topic:
Knowledge of Fourier and Laplace transforms.
Ability to develop transfer functions for linear electrical circuits.
Knowledge of relationship between system poles and time- domain performance.
Knowledge of the concept of system frequency response.
Test 1 -- Tuesday, February 25 -- Chapters 1, 3, and 5 (Sections 5.1. 5.2, 5.3) -- Solutions
Test 2 -- Thursday, March 27 -- Chapters 5 (Sections 5.4, 5.7, 5.8, 5.9) and 6 -- Solutions
Final Exam -- Thursday, May 8, 4:30 - 7:15 p.m. -- Comprehensive, with Chapters 7, 8, 9 emphasized
Last day to drop classes without Dean's permission -- Friday, February 21.
No classes during the week of March 9 due to Spring Break!!!
Chapter 1 -- Introduction, what control systems are, types of control systems, examples of control systems, what feedback is and why it is used - 1 class period.
Chapter 3 -- Block diagrams and their manipulation, signal flow graphs, Mason's gain formula - 3 class periods.
Chapter 5 -- Transient analysis for systems, model and characteristics of first-order systems, model and characteristics of second-order systems, effects of control actions on system performance, stability analysis with the Routh array, steady-state errors in systems - 7 class periods.
Chapter 6 -- Closed-loop poles and their movement, concept of the root locus magnitude and phase criteria, constructing the root locus plot, properties of the root locus - 3 class periods.
Chapter 7 -- Specifications for control systems, designing compensators using the root locus, phase lag and phase lead compensators, lag-lead compensation - 4 class periods.
Chapter 8 -- Frequency response analysis, review of Bode plots, gain and phase margins - 3 class periods.
Chapter 9 -- Specifications for control systems, designing compensators in the frequency domain, phase lag and phase lead compensators, lag-lead compensation - 4 class periods.
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Lastest revision on
Wednesday, June 7, 2006 11:44 AM