course syllabus controlsystems

COURSE SYLLABUSCOLLEGE OF ENGINEERING

Issue No: 01 Revision No: 00

Effectivity Date: February 18, 2015

Course Code: EE301 of

Course Title:

FEEDBACK AND CONTROL SYSTEMS

Prerequisite: EE202, ECE202, MATH311

Credit Unit: 4 units

Lecture Hour: 3 Laboratory Hour: 1

1.0 Course Description This course covers the study of transfer functions, block diagrams, signal flow graphs, root locus, Bode, Nyquist and Polar plots, sensitivity and stability criteria, linear feedback systems and compensation techniques circuits.

2.0 Intended Learning Outcomes of the Course

At the end of the course, the students will be able to:1. Define Control Systems.2. Discuss and evaluate the Different types of Control System.3. Know the History of Control System4. Discuss the Modern Applications of Control System5. Perform Laplace transform and Inverse Laplace Transform6. Use Laplace transform to solve Intergo-differential equations7. Know the Laplace transform of Electrical Networks8. Solve the Voltage, Current and Impedance of Electrical Networks using Laplace Transforms9. Define Transfer Function10. Use Electrical Circuit Principles to solve the Transfer Functions of a System11. Use Electronics Principles to solve the Transfer Functions of an OPAMP

ISO 9001:2000 QMS Document

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Course Title:





12. Understand the different System Response13. Assess the different system variables.14. Understand the principle of System Stability15. Reduce Block Diagram using Block Reduction Theorems16. Understand Signal Flow Graphs

3.0 Grading System

Lecture/Laboratory: Prelims Midterm Finals Quizzes 40% 40% 40% Class Standing 10% 10% 10% Major Exam 50% 50% 50% TOTAL 100% 100% 100%

FINAL GRADE = 30% Prelim + 30% Midterm + 40% Final

4.0 Course Program







Course Title:





Time Frame(No. of Hours) Topics Intended Learning Outcomes Teaching and Learning Activities Assessment Tools

3 hoursPRELIM PERIOD

1. INTRODUCTION TO CONTROL SYSTEMS1.1 Define Control Systems1.2 Importance of Control system1.3 Kinds of Controls System1.4 Modern Application of Control System

1. Define Control Systems.2. Discuss and evaluate the Different

types of Control System.3. Know the History of Control

System4. Discuss the Modern Applications of

Control System

Laboratory Experiments

Film Viewing

Discussions

Research

Quizzes and Seatworks

6 hours 2. LAPLACE TRANSFORMS2.1 Laplace Transform General Equation2.2 Laplace Transform Functions2.3 LaplaceTransform Theorems2.4 Inverse Laplace Transforms2.5 Partial Fractions2.6 Heaviside Expansion2.7 Solution to Integro Differential

1. Perform Laplace transform and Inverse Laplace Transform

2. Use Laplace transform to solve Intergo-differential equations

Laboratory Experiments using SCILAB

Discussions

Research

Quizzes and Seatworks







Course Title:





Equations

6 hours MIDTERM PERIOD

3. ELECTRICAL NETWORKS3.1 Laplace Impedances3.2 Current and Voltage of Electrical Devices and its Laplace Transforms3.3 Laplace Solutions to Electrical Networks

1. Know the Laplace transform of Electrical Networks

2. Solve the Voltage, Current and Impedance of Electrical Networks using Laplace Transforms


Discussions

Research

Quizzes and Recitation


6 hours 4. TRANSFER FUNCTIONS 1. Define Transfer Function Laboratory Experiments using SCILAB Quizzes and Recitation







Course Title:





4.1 Define Transfer Function4.2 Uses of Transfer Function4.3 Deriving Transfer Functions

2. Use Electrical Circuit Principles to solve the Transfer Functions of a System

3. Use Electronics Principles to solve the Transfer Functions of an OPAMP

Discussions

Research

3 hours

5. SYSTEM RESPONSE5.1 Impulse Response5.2 Step Response5.3 First order Systems5.4 Second Order Systems

1. Understand the different System Response

2. Assess the different system variables.


Discussions

Research








Course Title:





3 hours

FINAL PERIOD6. SYSTEM STABILITY

6.1 Concept of Stability6.2 Routh – Hurwitz stability criterion6.3 Relative Stability

1. Understand the principle of System Stability


Discussions

Research



3 hours 7. BLOCK DIAGRAM REDUCTION7.1 Block Diagram Reduction Theorems

1. Reduce Block Diagram using Block Reduction Theorems


Discussions

Research


3 hours 8. SIGNAL FLOW GRAPH7.1 Basic Signal Flow Graph7.2 Signal Flow Graph vs Block Diagram

1. Understand Signal Flow Graphs Laboratory Experiments using SCILAB

DiscussionsQuizzes and Recitation







Course Title:





Reduction7.3 Signal Flow Graph Equivalent Research

5. Text book (If necessary)

Nise, Norman S. Control Systems Engineering, 3rd Edition. John Wiley & Sons, 2000.

7. References ISO 9001:2000 QMS Document






Course Title:





Nise, Norman S. Control Systems Engineering, Just Ask! Control Solutions Companion, 4th Edition. John Wiley & Sons 2003.Dorf, Richard C., Bishop ], Robert H. Modern Control System, 9th Edition. Prentce Hall, 2000Huntington, John. Control Systems for Live Entertainment, 2nd Edition. Focal Press, 2000

Kuo, Benjamin C., Golnaraghi, Farid. Automatic Control Systems, 8th Edition. John Wiley & Sons, 2002Ogata, Katsuhiko. Modern Control Engineering, 4th Edition. Prentice Hall, 2001Zilouchian, Ali, Jamshidi, Mohammad. Intelligent Control Systems Using Soft Computing Methodologies. CRC Press, 2001.Bateson, Robert N. Introduction to Control System Technology, 7th Edition. Prentice Hall, 2001.

Prepared by:

Tirso L. Llantada, ECE

Date

18 February 2015

Reviewed by:

Michelle Caringuian, MIT

Date

18 February 2015

Approved by:

Mary Jane Laranang, MCP, MIT

Date

18 February 2015







Course Title:







course syllabus controlsystems

Documents

laplace transforms3

laplace impedances3

laplace solutions

laplace transforms9

control systems1

inverse laplace transforms2

inverse laplace transform6

inverse laplace transform2