Faculty Of Engıneerıng
Electrıcal And Electronıcs Engıneerıng (Englısh)

Course Information

INTRODUCTION TO ELECTRICAL ENGINEERING
Code Semester Theoretical Practice National Credit ECTS Credit
Hour / Week
EEE112 Spring 3 0 3 4

Prerequisites and co-requisites
Language of instruction English
Type Required
Level of Course Bachelor's
Lecturer Prof. Dr. Cemil Cengiz ARCASOY
Mode of Delivery Face to Face
Suggested Subject
Professional practise ( internship ) None
Objectives of the Course Introducing the basic components and fundamental variables of the electrical circuit. Comprehending the fundamental electric laws, circuit theorems and circuit analysis methods. Giving the the behaviors of the fist and second order circuits onder dc conditions.
Contents of the Course "The relationships between the circuit variables. Ohm’s and Kirchhoff’s Laws. Fundamental circuit analysis methods; nodal and mesh analysis. Circuit theorems; source transformations, superposition, maximum power transfer, Thevenin’s and Norton’s theorems. Analysis of the first and second order circuits including reactive circuit elements onder dc conditions. "

Learning Outcomes of Course

# Learning Outcomes
1 Getting knowledge about Basic concepts; charge and current, voltage, power and energy. Relationships between the circuit variables. Passive and active circuit elements.
2 Getting knowledge about Ohm’s and Kirchhoff’s laws. Series resistors and voltage dividers, Paralel resistors and current dividers. Wye-delta and delta-wye transformations.DC meters.
3 Getting knowledge about Nodal analysis and mesh analysis, super node and super mesh.
4 Getting knowledge about Superposition theorem, source transformation, Thevenin ve Norton theorems, maxsimum power transfer theorem.

Course Syllabus

# Subjects Teaching Methods and Technics
1 Basic concepts; charge and current, voltage, power and energy. Relationships between the circuit variables. Passive and active circuit elements. lecture, presentation, discussion
2 Ohm’s and Kirchhoff’s laws. Series resistors and voltage dividers, Paralel resistors and current dividers. Wye-delta and delta-wye transformations.DC meters. lecture, presentation, discussion
3 Nodal analysis, super node lecture, presentation, discussion
4 Mesh analysis, super mesh lecture, presentation, discussion
5 Superposition theorem, source transformation, lecture, presentation, discussion
6 Thevenin ve Norton theorems, maxsimum power transfer theorem. lecture, presentation, discussion
7 Review, Examples lecture, presentation, discussion
8 Midterm
9 Capacitors and inductors. The terminal relationships of capacitors and inductors. Series and paralel conections of capacitors and inductors. lecture, presentation, discussion
10 The behaviors of capacitors and inductors at dc conditions. lecture, presentation, discussion
11 The analysis of source-free RL circuits at dc conditions. Step responce of RL circuits. lecture, presentation, discussion
12 RC circuits at dc conditions. Step responce of RC circuits. lecture, presentation, discussion
13 Finding the initial and final values of capacitor voltage and inductor current. Analysis of series and paralel source-free RLC circuits under dc conditions. lecture, presentation, discussion
14 Step responce of series and paralel RLC circuits. lecture, presentation, discussion
15 Analysis of the second order operational amplifier circuits. Analysis of the general second order RLC circuits. lecture, presentation, discussion
16 Final Exam

Course Syllabus

# Material / Resources Information About Resources Reference / Recommended Resources
1 Electric Circuits, by W. Nilsson, 10th ed. Pearson

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 Getting knowledge about Basic concepts; charge and current, voltage, power and energy. Relationships between the circuit variables. Passive and active circuit elements. 1 1͵2
2 Getting knowledge about Ohm’s and Kirchhoff’s laws. Series resistors and voltage dividers, Paralel resistors and current dividers. Wye-delta and delta-wye transformations.DC meters. 3 1͵2
3 Getting knowledge about Nodal analysis and mesh analysis, super node and super mesh. 3 1͵2
4 Getting knowledge about Superposition theorem, source transformation, Thevenin ve Norton theorems, maxsimum power transfer theorem. 3͵5 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 3 42
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 10 10
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
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