Control Engineering (EEME4012)

Pre-requisite(s)

Applied Differential Equation (MTME-1043)

Recommended Book(s)

Feedback Control Of Dynamic Systems 5th EditionBy: Franklin & Powell

Reference Book(s)

Modern Control Systems (8th Edition) By Dorf And Bishop,

Modern Control Engineering By Ogata,

Control System Design By Chen

Course Objectives

This course presents an introduction to feedback control systems. Control systems have importance in all fields of engineering. The objective is to provide the student with the basic concepts of control theory as developed over the years in both frequency and time domain.

Course Learning Outcomes (CLO)

CLO-1: Make mathematical models of different physical system.  The gained knowledge to be applied to physical systems to determine the stability, fastness, slowness or oscillations. (C3)

CLO-2: Analyze complex engineering problems using mathematical models to examine different properties of the system. (C4)

CLO-3: Develop a controller to achieve the desired response from the system by using the knowledge developed in the analysis process. (C5)

Course Contents

  1. 1.     Introduction to Control Systems
  • Examples of Control System
  • Open-loop vs Close-loop Control
  • Properties of Close-loop System
  1. 2.    Mathematical Modeling of Dynamic Systems
  • Mathematical modeling of electrical, mechanical and electromechanical systems
  • Linear approximation of physical systems
  • The transfer function and impulse response of LTI systems
  • Block diagrams
  • Signal flow graphs and Mason’s gain formula
  • State-Space representation of dynamic systems
  1. 3.    Transient and Steady-State Response Analysis
  • First order systems
  • Second order systems
  • Higher order systems
  • Time domain specifications
  • Routh’s Stability Criterion
  • Steady state error analysis
  • Steady state tracking and system types
  1. 4.    PID Controllers
  • Proportional (P) controller
  • Integral (I) controller
  • Derivative (D) controller
  • PI and PD controllers
  • PID
  • Tuning rules for PID conrollers
  1. 5.    Root-Locus Analysis
  • Root-Locus plots
  • General rules for constructing root loci
  • Computer Aided determination of Root Locus (using MATLAB)
  • Root-Locus analysis of control systems
  • Design and compensation techniques by Root-Locus
  1. 6.    Frequency Response Analysis
  • Bode plots
  • Polar plots
  • Nyquist plot and Nyquist stability criterion
  • Performance specifications in frequency domain
  • Lead, Lag and Lead-Lag design using frequency response

Mapping of CLOs to Program Learning Outcomes

CLOs/PLOs

CLO:1

CLO:2

CLO:3

PLO:1 (Engineering Knowledge)

 

 

PLO:2 (Problem Analysis)

 

 

PLO:3 (Design Development of Solutions)

 

 

PLO:4 (Investigation)

 

 

 

PLO:5 (Modern Tool Usage)

 

 

 

PLO:6 (Engineer & Society)

 

 

 

PLO:7 (Environment and Sustainability)

 

 

 

PLO:8 (Ethics)

 

 

 

PLO:9 (Individual & Team Work)

 

 

 

PLO:10 (Communication)

 

 

 

PLO:11 (Project Management)

 

 

 

PLO:12 (Life Long Learning)

 

 

 

 

Mapping of CLOs to Assessment Modules

Assessment Modules \ CLOs

CLO:1

CLO:2

CLO:3 

Assignments (15%)

 

 

 

Quizzes (15%)

 

 

 

Midterm Exam (20%)

 

 

 

Lab (15%)

 

 

 

Project (10%)

 

 

 

Final Exam (40%)