Nevşehir Hacı Bektaş Veli University Course Catalogue

Information Of Programmes

FACULTY OF ENGINEERING & ARCHITECTURE / EEM-210 - ELECTRICAL AND ELECTRONICS ENGINEERING

Code: EEM-210 Course Title: ELECTROMAGNETIC FIELDS Theoretical+Practice: 4+0 ECTS: 4
Year/Semester of Study 2 / Spring Semester
Level of Course 1st Cycle Degree Programme
Type of Course Compulsory
Department ELECTRICAL AND ELECTRONICS ENGINEERING
Pre-requisities and Co-requisites None
Mode of Delivery Face to Face
Teaching Period 14 Weeks
Name of Lecturer ALİ KÜRŞAD GÖRÜR (kgorur@nevsehir.edu.tr)
Name of Lecturer(s) ALİ KÜRŞAD GÖRÜR,
Language of Instruction Turkish
Work Placement(s) None
Objectives of the Course
To teach fundamentals of electrical and electronics engineering with vector operations and coordinate systems. To teach the behavior of static electric fields in space, conduction and isolation and related relations with them. To teach static magnetic fields. To learn the behavior of static magnetic fields in space, conductors, magnetic materials and related relations with them.

Learning Outcomes PO MME
The students who succeeded in this course:
LO-1 Will be able to do vector operations and to choose the appropriate coordinate system for probing PO-1 Mathematics, science and engineering information to gain the practical skills.
PO-2 Ability to identify engineering problems, modelling, formulate and improve the ability to solve.
Examination
LO-2 Knows the behavior of static electric fields in space, air and insulated environment and its physical meaning.Students will be able to calculate the breaking of field vectors at boundary surface of two insulating media. PO-1 Mathematics, science and engineering information to gain the practical skills.
PO-2 Ability to identify engineering problems, modelling, formulate and improve the ability to solve.
PO-8 Engineering solutions to adopt the sensitivity of the impacts that universal and social dimensions.
PO-10 Experimental design and conduct experiments, analyze experimental results and ability to add to interpret.
Examination
LO-3 They know the concepts of magnetic flux density and vector potential and to learn related relations PO-1 Mathematics, science and engineering information to gain the practical skills.
PO-2 Ability to identify engineering problems, modelling, formulate and improve the ability to solve.
PO-8 Engineering solutions to adopt the sensitivity of the impacts that universal and social dimensions.
PO-10 Experimental design and conduct experiments, analyze experimental results and ability to add to interpret.
Examination
LO-4 To be aware of magnetic materials with insulator PO-1 Mathematics, science and engineering information to gain the practical skills.
PO-2 Ability to identify engineering problems, modelling, formulate and improve the ability to solve.
PO-8 Engineering solutions to adopt the sensitivity of the impacts that universal and social dimensions.
PO-10 Experimental design and conduct experiments, analyze experimental results and ability to add to interpret.
Examination
LO-5 Will able to calculate current carrying conductors acting force. PO-1 Mathematics, science and engineering information to gain the practical skills.
PO-2 Ability to identify engineering problems, modelling, formulate and improve the ability to solve.
PO-8 Engineering solutions to adopt the sensitivity of the impacts that universal and social dimensions.
PO-10 Experimental design and conduct experiments, analyze experimental results and ability to add to interpret.
Examination
LO-6 Know the Faraday induction law and the basic principle of electricity generation in a generator. PO-1 Mathematics, science and engineering information to gain the practical skills.
PO-2 Ability to identify engineering problems, modelling, formulate and improve the ability to solve.
PO-8 Engineering solutions to adopt the sensitivity of the impacts that universal and social dimensions.
PO-10 Experimental design and conduct experiments, analyze experimental results and ability to add to interpret.
Examination
PO: Programme Outcomes
MME:Method of measurement & Evaluation

Course Contents
Electric field, electric flux density and electrical force concepts. Coulomb and Gauss laws.Conservation law, conductivity,Electric flux density, polarization. Concepts of electrical sensitivity and permeability,Insulators, continuity conditions in interface and stored energy,The potential energy of a charge distribution,Capacity (capacitor) calculation,Magnetic flux density and vector potential, Biot-Savart law,Ampere's law. Magnetic materials, magnetization,Magnetic field strength, magnetic susceptibility and permeability,Magnetic force and current on loads.Magnetic force between two closed circuits,Lorentz force and Hall effect,Motion of charged particles in a magnetic field,Faraday induction law. Lenz law. induced electromotive force in a circuit,Laplace and Poisson equations.
Weekly Course Content
Week Subject Learning Activities and Teaching Methods
1 Electric field, electric flux density and electrical force concepts. Coulomb and Gauss laws. Lecture, question and answer, discussion
2 Conservation law, conductivity. Lecture, question and answer, discussion
3 Electric flux density, polarization. Concepts of electrical sensitivity and permeability. Lecture, question and answer, discussion
4 Insulators, continuity conditions in interface and stored energy. Lecture, question and answer, discussion
5 The potential energy of a charge distribution. Lecture, question and answer, discussion
6 Capacity (capacitor) calculation. Lecture, question and answer, discussion
7 Magnetic flux density and vector potential, Biot-Savart law. Lecture, question and answer, discussion
8 mid-term exam
9 Ampere's law. Magnetic materials, magnetization. Lecture, question and answer, discussion
10 Magnetic field strength, magnetic susceptibility and permeability. Lecture, question and answer, discussion
11 Magnetic force and current on loads. Magnetic force between two closed circuits. Lecture, question and answer, discussion
12 Lorentz force and Hall effect. Lecture, question and answer, discussion
13 Motion of charged particles in a magnetic field. Lecture, question and answer, discussion
14 Faraday induction law. Lenz law. induced electromotive force in a circuit. Lecture, question and answer, discussion
15 Laplace and Poisson equations. Lecture, question and answer, discussion
16 final exam
Recommend Course Book / Supplementary Book/Reading
1 Electromagnetism, I. S. GRANT etc., John Willey,.
2 Electromagnetsim for Engineers, P. HAMMOND, Pergamon Press.
3 Electromagnetic Fields, R. V. BUCKLEY, Macmillian Pres.
4 Elektromagnetik Problemler ve Sayısal Yöntemler, Levent SEVGİ, Birsen Yayınevi. 2000.
5 Solved Problems In Electromagnetics, Syed A.NASAR, McGraw- Hill, Inc., 1992.
Required Course instruments and materials
Course book, laptop computer, projector

Assessment Methods
Type of Assessment Week Hours Weight(%)
mid-term exam 8 2 40
Other assessment methods
1.Oral Examination
2.Quiz
3.Laboratory exam
4.Presentation
5.Report
6.Workshop
7.Performance Project
8.Term Paper
9.Project
final exam 16 2 60

Student Work Load
Type of Work Weekly Hours Number of Weeks Work Load
Weekly Course Hours (Theoretical+Practice) 4 14 56
Outside Class
       a) Reading 2 10 20
       b) Search in internet/Library 1 10 10
       c) Performance Project 1 4 4
       d) Prepare a workshop/Presentation/Report 0
       e) Term paper/Project 1 12 12
Oral Examination 0
Quiz 1 4 4
Laboratory exam 0
Own study for mid-term exam 5 1 5
mid-term exam 2 1 2
Own study for final exam 5 1 5
final exam 2 1 2
0
0
Total work load; 120