Faculty Of Engıneerıng
Electrıcal And Electronıcs Engıneerıng (Englısh)

Course Information

CONTROL THEORY
Code Semester Theoretical Practice National Credit ECTS Credit
Hour / Week
EEE308 Spring 2 2 3 4

Prerequisites and co-requisites
Language of instruction English
Type Required
Level of Course Bachelor's
Lecturer Prof. Dr. C . Cengiz ARCASOY
Mode of Delivery Face to Face
Suggested Subject
Professional practise ( internship ) None
Objectives of the Course The aim of the course is to transfer the basic knowledge required for analysis and design of real-time systems to the students.
Contents of the Course Linearization, Laplace Transformation, Mechanical system modelling, mass,spring and Friction, Rotational sys.:inertia,spring, dash-pot, D.C. Motors, generator, motor-generator set, Transfer function ,simulation,Statespace formulation, solution of state equations, Observability, controllability, First and second order systems, time domain solution,Design spec. Overshoot, peak time, settling time, rise time, Stability, Routh-Hurwitz, Signal flow diagram, Mason Formula, Construction of Root-locus diagram, Observer design , PID design, Phase lead, phase lag compensators, Design of phase lead compensator

Learning Outcomes of Course

# Learning Outcomes
1 They can model the system.
2 They can do matrix operations.
3 They identify the concept of time zone.
4 Identifies the concept of frequency domain.
5 They know the design of the observer.
6 They can design controllers.
7 They can analyze real systems.
8 They can control real systems.

Course Syllabus

# Subjects Teaching Methods and Technics
1 Linearization, Laplace Transformation lecture
2 Mechanical system modelling, mass,spring and Friction, Rotational sys.:inertia,spring, dash-pot lecture
3 D.C. Motors, generator, motor-generator set lecture
4 Transfer function ,simulation,Statespace formulation, solution of state equations lecture
5 Observability, controllability lecture
6 First and second order systems, time domain solution,Design spec. lecture
7 Overshoot, peak time, settling time, rise time lecture
8 Midterm
9 Stability, Routh-Hurwitz lecture
10 Signal flow diagram, Mason Formula lecture
11 Construction of Root-locus diagram lecture
12 Observer design , PID design lecture
13 Phase lead, phase lag compensators lecture
14 Design of phase lead compensator lecture
15 Design of phase lag compensator. lecture
16 Final Exam

Course Syllabus

# Material / Resources Information About Resources Reference / Recommended Resources
1 Ogata K. 'Modern control engineering 5th. Ed.,
2 Nise Control System Engineering 6th ed.

Method of Assessment

# Weight Work Type Work Title
1 40% Mid-Term Exam Mid-Term Exam
2 60% Final Exam Final Exam

Relationship between Learning Outcomes of Course and Program Outcomes

# Learning Outcomes Program Outcomes Method of Assessment
1 They can model the system. 1 1͵2
2 They can do matrix operations. 3 1͵2
3 They identify the concept of time zone. 12 1͵2
4 Identifies the concept of frequency domain. 10 1͵2
5 They know the design of the observer. 1 1͵2
6 They can design controllers. 12 1͵2
7 They can analyze real systems. 3 1͵2
8 They can control real systems. 10 1͵2
PS. The numbers, which are shown in the column Method of Assessment, presents the methods shown in the previous table, titled as Method of Assessment.

Work Load Details

# Type of Work Quantity Time (Hour) Work Load
1 Course Duration 14 4 56
2 Course Duration Except Class (Preliminary Study, Enhancement) 14 2 28
3 Presentation and Seminar Preparation 0 0 0
4 Web Research, Library and Archival Work 0 0 0
5 Document/Information Listing 0 0 0
6 Workshop 0 0 0
7 Preparation for Midterm Exam 1 12 12
8 Midterm Exam 1 2 2
9 Quiz 0 0 0
10 Homework 0 0 0
11 Midterm Project 0 0 0
12 Midterm Exercise 0 0 0
13 Final Project 0 0 0
14 Final Exercise 0 0 0
15 Preparation for Final Exam 1 20 20
16 Final Exam 1 2 2
  120