T.C.
FIRAT UNİVERSITY
ENGINEERİNG FACULTY
ELECTRICAL-ELEKTRONICS ENGINEERING UNDERGRADUATE PROGRAM
THIRD YEAR/ FALL
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Prerequisites / Recommended
ELECTRICAL INSTALLATIONS
EMÜ-351
6
4 hours/week
Dr. Mehmet CEBECİ
3rd / Fall
Compulsory
Introduction to electrical installations. Classification. Generation,
transmission and distribution voltages. General structure, units and
properties of a power plant. Short and medium-length transmission lines,
nominal  and nominal T circuit. Resistance, inductance and capacitance
calculations on transmission lines. Structures and properties of conductors
which used on the transmission lines. Structures, types and properties of the
insulators. Potential distribution on the insulators. Transmission line towers.
Calculation and election of towers used on the LV distribution networks.
Types, properties and breaking techniques of circuit breakers. Short circuit
current and its properties. Calculation and election of circuit breaker
according to short circuit current. Busbar systems. Types, properties and
elections of measuring transformers which are current and voltage
transformers. Grounding, types of grounding and properties.
To teach the students calculations and properties of electrical installations,
transmission lines, component of line and grounding.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Elektrik Enerjisi Dağıtımı, Enerji İletimi, Enerji Hatları Mühendisliği,
Elektrik Tesislerinde Topraklama
ELECTRONIC CIRCUITS
EMU-323
6
4 hours/week
Dr. Fikret ATA
3nd / Fall
Compulsory
None / Electronic, Circuit Analysis, Circuit Theory, Electrotechniques,
Advanced Mathematics I and II.
Modeling with BJT and important parameters (Zİ, ZO, AV, Aİ). The re model of
transistor and its hybrid equivalent. Small signal analysis of BJT, and bias types:
common emitter with fixed biasing, voltage divider biasing, common emitter
biasing, common collector biasing, emitter follower biasing, collector feedback
biasing and hybrid equivalents’. Small signal analysis of FETs and biasing: selfModule Contents
biasing and voltage divider biasing. Source follower FET, Common gate FET
and designing of FET amplifiers. Low and high frequency responses of FET and
BJTs. Analysis of complex transistors circuit, cascaded circuits, Darlington
connection, CMOS circuit and differential amplifiers. Operational amplifiers:
common mode and difference mode process, basic op-amp specifications: Opamp applications: voltage adder, voltage follower, differential amplifier, derivate
and integrator circuits, active filter design. Voltage regulators and integrated
voltage regulators. Power supplies, filter capacitors and RC filters.
Aims and objectives of the The aim of this module is to teach analysis and design of differential amplifiers,
Module
Method of assessment
Teaching Language
Textbook / Recommended
Reading
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
power amplifiers, op-amp and feedback circuits and complex electronic circuits.
One written midterm exam (%40) and one written final exam (%60)
Turkish
Electronic Devices and Circuit Theory, 5th Ed., Robert Boylestad / Design with
Operational Amplifiers and Analog Integrated Circuits, 3 rd Ed., Sergio Franco
POWER ELECTRONICS
EMÜ-333
6
4 hours/week
Dr. Sedat SÜNTER
3rd / Fall
Compulsory
None / Circuit theory, Electrotechnics, Advanced Mathematics I and II.
Introduction to power electronics. Review of circuit components and power
semiconductor devices used in power electronic circuits. Calculation of
losses in power devices; conduction loss, switching loss. Snubber circuits.
Steady state heat sink calculation. AC choppers. Single phase uncontrolled
(diode) and controlled (thyristor) rectifiers, overlap, inversion, inductive and
capacitive smoothing. Three-phase uncontrolled (diode) and controlled
(thyristor) rectifiers, overlap, inversion, inductive smoothing. DC-DC
thyristor converters. Single phase inverters, the H-bridge circuit and its
operation, applications, quasi-square wave and PWM techniques for voltage
and frequency control, typical frequency spectra, relationship between AC and
DC side harmonics.
The aim of this module is to provide an introduction to the basic concepts
and techniques used in power electronics described in the module contents.
One written midterm exam (40%) and one written final exam (60%)
Turkish
POWER ELECTRONICS: Converters, Applications and Design (2ed) by
Mohan, Undeland and Robbins, Wiley publishing.
COMPUTER AIDED ANALYSIS LABORATORY FOR ELECTRICAL ENGINEERING
Module Code Number
EMU-313
Number of ECTS Credits
3
Hours / Week
2 hours/week
Module Lecturer
Dr. Mustafa POYRAZ
Year / Term
3rd / Fall
Type of Course
(Compulsory / Elective)
Compulsory
Prerequisites / Recommended None / Basic Information Technologies,Basic Computer Sciences, Fundamentals
of Computer Science, Advanced Mathematics I and II
Introduction to MATLAB. MATLAB workspace and basic features. Command
window and command line instructions. Script files and file management.
Complex numbers. Array and matrix operations. Relational and logical
Module Contents
operations. Control flow: for loops, while loops, if- else-end, switch-case
constructs. M-file functions. Polynomial roots, multiplication, addition, division.
Curve fitting and interpolation. Numerical integration and differentiation.
Numerical solution of differential equations. Fourier analysis and fast Fourier
transform. Two-dimensional and three-dimensional graphics. Introduction to
SIMULINK. Block properties and file management. Establishing and simulation
of a system with SIMULINK.
Aims and objectives of the The aim of this module is to develop practical skills in the use of
Module
MATLAB/SIMULINK in order to solve everyday problems in Electrical
Engineering.
Method of assessment
One written midterm exam (%40) and one written final exam (%60)
Teaching Language
Turkish
Textbook
Reading
/
Recommended Mastering MATLAB Hanselman D. , Littlefield B. , Prentice Hall.
MATLAB for Engineers, Biran, A. and Breiner, M. , Addison Wesley.
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
ELECTRİCAL MACHİNERY -I
EMÜ-331
6
4 hours/week
Dr. Ahmet ORHAN
3rd / Fall
Compulsory
Electrotechnics, Advanced Mathematics I and II, Electromechanical Energy
Conversion.
Introduction to Machinery Principles; Electrical Machines; Transformers;
Rotational Motion; Power Relationships; Production of induced Force on a
Wire; Induced voltage on a Conductor Moving in a Magnetic Field;
Transformers; Types and Construction of Transformers; Ideal Transformer;
Theory of Operation of Real Single –Phase Transformers; The Equivalent
Circuit of a Transformer; The Per-Unit System of Measurements; The
Transformer Voltage Regulation and Efficiency; Transformer Taps and
Voltage Regulators; The Autotransformer; Three-Phase Transformers; Three
–Phase Transformation Using Two Transformers; Transformer Ratings;
Instrument Transformers; DC Machinery Fundamentals; Linear DC
Machines; Transient Analysis of the Linear DC Machines; Commutation in a
Simple Four-Loop DC Machine; Commutation and Armature Construction
in Real DC Machines; The Internal Generated Voltage and Induced Torque
Equations of Real Machines; The Construction of DC Machines; Power
Flow and Losses in DC Machines; DC GENERATORS; The Equivalent
Circuit of a DC Generator; The Separately Excited DC Generators; The
Shunt DC Generators; The Series DC Generators; The Compounded DC
Generators; Parallel Operation of DC Generators; DC MOTORS; The
Equivalent Circuit of a DC Motor; The Separately Excited DC Motor; The
Shunt DC Motor ; The Series DC Motor; The Compounded DC Motor; Dc
Motor Starters; Block Diagram of DC Motors; Mathematical Model of DC
Motors; Transient Analysis of DC Motors.
The aim of this module is to provide an introduce to the basic concepts and
techniques of electrical machines. The other aim is to transient and steady
state analysis of Transformer and DC Machines.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Theory and Problems of Electric Machines and Electromechanic by Syed A.
Nasar; McGRAW-HILL ,INC
Electric Machinery Fundamentals by Stephan J. Chapman; McGRAWHILL ,INC;1991
Analysis of Electric Machinery; Paul C. Krause; McGraw-Hill İnternational
Editions; 1987
Özel Elektrik Makinaları ; Doç. Dr. Güngör Bal; Seçkin Yayıncılık; 2004
NUMERICAL ANALYSIS
EMÜ-311
3
3 hours/week
Dr. Hasan KÜRÜM
3rd / Fall
Compulsory
None / Electrotechnics, Advanced Mathematics I and II, High Mathematics I
and II.
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Numerical errors and their estimation. Approximation and interpolation. Roots
of equations. Solution of linear and nonlinear simultaneous equations.
Numerical differentiation and integration. Solution of ordinary and partial
differential equations. Introduction to statistical methods.
The aim of this module is to give methods of numerical solution of linear and
nonlinear equations.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Sayısal Çözümleme - Prof.Dr.Sefa APINAR, Prof.Dr.Hasan KÜRÜM
Sayısal Çözümleme - Ziya AKTAŞ, O.D.T.Ü.
Mathematicsel Visualization – Algoritms, Applications and Numerics – H.
Hege, K. Polthier , Springer-Verlag Telos
THIRD YEAR/ SPRING
ELECTRİCAL MACHİNERY LABORATORY-I
Module Code Number
EMÜ-334
Number of ECTS Credits
2
Hours / Week
2 hours/week
Module Lecturer
Dr. Ahmet ORHAN
Year / Term
3rd / Spring
Type of Course
Compulsory
(Compulsory / Elective)
Pre requisites / Recommended
Electrotechnics, Advanced Mathematics I and II, Electromechanical Energy
Conversion, Electric Machinery -I .
Two way energy transfer to d.c.-a.c. networks by means of Pendel
Experiment Set
İnvestigated breaking and starting in d.c. motors
Measurement of fundamental magnitudes in electrical machines
Module Contents
Speed control of d.c. motor with thristor driving system
Determined of characteristic of d.c. motor
Determined of characteristic of d.c. generator
Determined of equvialent circuit parameters of single-phase transformers
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Prerequisites / Recommended
İnvestigated and displayed electrical magnitudes in computer by means of
DMS2
The aim of this module is to provide an introduce to the basic concepts and
techniques of AC electrical machines. The other aim is to transient and
steady state analysis of AC Machines.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Theory and Problems of Electric Machines and Electromechanic by Syed A.
Nasar; McGRAW-HILL ,INC
Electric Machinery Fundamentals by Stephan J. Chapman; McGRAWHILL ,INC;1991
Analysis of Electric Machinery; Paul C. Krause; McGraw-Hill İnternational
Editions; 1987
Özel Elektrik Makinaları ; Doç. Dr. Güngör Bal; Seçkin Yayıncılık; 2004
SIGNALS and SYSTEMS
EMÜ-314
3
3 hours/week
Dr. Melih Cevdet İNCE
3rd / Spring
Compulsory
None / Circuit theory, Electrotechnics, Advanced Mathematics I and II.
Module Contents
Memory, causality, stability, invertibility, linearity and time-invariance
Linear time-invariant systems: impulse response, convolution. Functions of a
complex variable, complex series and integrals. Transform methods:
Continuous time Fourier series and transform, discrete-time Fourier series
and transform, Frequency response. Sampling theory. Laplace and ztransforms, system functions.
Aims and Objectives of the
module
Method of assessment
Teaching Language
The aim of this module is to provide an introduction to the basic concepts
and transform methods used in systems described in the module contents.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Prerequisites / Recommended
Module Contents
SIGNALS AND SYSTEMS:SCHAUM’S OUTLINE SERİES, Mc Graw Hill
ELECTRİCAL MACHINERY THEORY-II
EMÜ-332
6
4 hours/week
Dr. Ahmet ORHAN
3rd / Spring
Compulsory
Electrotechnics, Advanced Mathematics I and II, Electromechanical Energy
Conversion.
AC Machine Fundamentals; The Rotating Magnetic Field; Magnetomotive
Force and Flux Distribution in AC Machines; Induced Voltage in Ac
Machines; Distributed Windings in AC Machines; Induced Torque in AC
Machines; AC Machine Power Flows and Losses; SYNCHRONOUS
GENERATORS; Synchronous Generator Construction; The Speed of
Rotation of a Synchronous Generator; The Equivalent Circuit Synchronous
Generator; The Phasor Diagram of Synchronous Generator; Power and
Torque in Synchronous Generator, Measuring Synchronous Generator
Model Parameters; Alone and Parallel Operation of Synchronous
Generators; Synchronous Generator transients; SYNCHRONOUS
MOTORS; Steady State Synchronous Motor Operation; Starting
synchronous Motors; INDUCTION MOTORS; Construction and Motor
Concepts of Induction Machine; The equivalent Circuit of and Induction
Motor; Power and Torque Induction Motor; Torque-Speed characteristics;
Speed Control of Induction Motors; Solid-State Induction Motor Drives;
Determining Circuit Model Parameters; INDUCTION GENERATOR;
Induction Frequency Changers ; Ratings; SINGLE PHASE and SPECIAL
PURPOSE MOTORS; The Universal Motors; Single Phase Induction
Motors; Circuit Model of a Single Phase Induction Motors; Permanent
Magnet Motors.
The aim of this module is to provide an introduce to the basic concepts and
techniques of AC electrical machines. The other aim is to transient and
steady state analysis of AC Machines.
One written midterm exam (40%) and one written final exam (60%)
Turkish
- Theory and Problems of Electric Machines and Electromechanic by Syed A.
Nasar; McGRAW-HILL ,INC
- Electric Machinery Fundamentals by Stephan J. Chapman; McGRAWHILL ,INC;1991
- Analysis of Electric Machinery; Paul C. Krause; McGraw-Hill İnternational
Editions; 1987
- Özel Elektrik Makinaları ; Doç. Dr. Güngör Bal; Seçkin Yayıncılık; 2004
ELECTRONIC LABORATORY
EMU-326
2
2 hours/week
Dr. Fikret ATA
3nd / Spring
None / Electronic, Electronic Circuits, Circuit Analysis, Circuit Theory,
Electrotechniques.
Experiments: Basic Op-amp specifications, current and voltage converters with
op-amp, linear and nonlinear op-amp applications, transistor amplifiers,
transistor amplifiers classes, voltage and current regulators, FET amplifiers, UJT
and opto-couplers,
Aims and objectives of the This lab supports EMU-222 Electronic and EMU-323 Electronic Circuits
Module
lectures. It will be give the students a hands-on experience with electronic
circuits and electronic test instruments as discussed in the lectures.
Method of assessment
One written midterm exam (%40) and one written final exam (%60)
Teaching Language
Turkish
Textbook / Recommended Electronic Devices and Circuit Theory, 5th Ed., Robert Boylestad / Design with
Reading
Operational Amplifiers and Analog Integrated Circuits, 3 rd Ed., Sergio Franco
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
AUTOMATIC CONTROL-I
EMÜ-316
3
3 hours/week
Dr. Mustafa POYRAZ
3rd / Spring
Compulsory
None / Circuit theory, Circuit analysis, Advanced Mathematics I and II.
Introduction of control and system theory. Mathematical modelling of
physical systems. Transfer functions, Bode diagram and signal flow graph.
Relationship between state equations and high-order differential equations,
Relationship between state equations and transfer functions.
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
Recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Decomposition of transfer functions. Time domain performance of control
systems –the steady- state error. Time-domain performance of control systems,
transient response at a second-order system , Routh –Hurwitz criterion, Root
Locus techniques, Bode plots, relative stability, gain margin ,phase margin
and Mp.
The aim of this module is to provide an introduction to the basic concepts
and techniques used In automatic control described in the module contents.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Automatic Control Systems, Benjamin C.Kuo, Prentice-Hall International,
Inc.1999.
Modern Control Engineering, Katsuhıko Ogata. Prentice-Hall International,
Inc.1990.
LOGIC CIRCUITS
EMÜ-312
6
4 hours/week
Dr. Yetkin TATAR
3rd / Spring
Compulsory
None
Understanding concepts of digital and analog, number systems. Basic
operations. Digital and alphadigital codes, transformations between codes.
Logic mathematics, conjunctions, definition tables, function equations,
theorems. Steps for combinational logic circuit design. Reduction methods
for function equations, Karnough and Q-Mc Clusky methods. Electronic
structures of combinational logic circuit members, integrated circuits.
Features of logic families and selection criterias. Structures od SSI, MSI, LSI
integrated circuits. Functional structures of MSIs. Investigation of adder,
decoder/encoder, comperator structures. Incelenmesi Structures of
Multiplexer/Demultiplexer and applications at logic circuit solutions.
Structures of consecutive logic circuits. Indecisive,single decisive,double
decisive circuit members. Design steps for asynchronized logic circuits.
Asyncronized counters and designs. Design steps for synchronized
consecutive circuits. Example designs. Digital memory structures, RAM and
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
Recommended readings
ROM types of memory. Complicated consecutive logic circuit design
samples and applications.
Student learns basic knowledge about logic design of digital circuits.
Gaining ability to Analyze events from logical perspective. Gaining ability
to divide complicated problems into small segments to ease the problem.
Developing thinking ability and theoric knowledge that can be a base for
designing upper level digital system.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Digital Design; by M. Morris Mano, Prentice Hall İnt.-2000
ELECTIVE SUBJECT GROUP-I
ELECTRIC MACHINERY GROUP
ELECTRICITY UTILIZATION IN INDUSTRY APPLICATIONS
Module Code Number
EMÜ-336
Number of ECTS Credits
3
Hours / Week
3 hours/week
Module Lecturer
Dr. Sedat SÜNTER
Year / Term
3th / Spring
Type of Course
Elective
(Compulsory / Elective)
Pre requisites / Recommended
None
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Furnace power supplies: Resistance furnace power supplies, arc furnace
supplies, induction furnace supplies. Star/Delta starters for induction motors.
Electronic flowmeters. Electrodes, transducers. Heat control. Light control.
Measurement of liquid levels. PLC control. Project presentation.
The aim of this module is to give ideas and concepts on electric systems used
in industry.
One midterm project (20%), one written midterm exam (20%) and one
written final exam (60%)
Turkish
The power thyristor and its applications by David Finney, McGRAW-HILL
publishing, 1980. Modern Industrial Electronics, Prentice Hall. Güç
Elektroniği Semineri, Ekim 1989, KTÜ, Trabzon.
POWER ELECTRONICS SYSTEMS
EMÜ-338
3
3 hours/week
Dr. Sedat SÜNTER
3th / Spring
Elective
None / EMÜ-333 Power Electronics
Six-step inverters. Power supplies for electronic equipment, requirements.
Traditional linear power supply. Switch mode power supply (SMPS), basic
arrangement and advantages. Flyback switching regulators: Circuit topology
and principles of operation (non-isolated and isolated versions),
performance/design calculations. Forward switching regulators: Circuit
topology and principles of operation (non-isolated and isolated versions),
performance/design calculations. Boost converter: Circuit topology and
principles of operation (non-isolated version), performance/design
calculations. Control of SMPS. DC motor control: DC choppers, twoquadrant chopper, four-quadrant chopper. Closed loop control of DC motors.
Speed control of induction motors: V/F control and closed loop slip control.
Uninterruptible power supply (UPS).
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
The module is actually a continuance of power electronics module and it is
aimed to analyse and design the power electronic systems by implementing
the ideas and concepts gained in the module of power electronics.
One midterm written exam (40%) and one written final exam (60%).
Turkish
POWER ELECTRONICS: Converters, Applications and Design (2ed) by
Mohan, Undeland and Robbins, Wiley publishing.
ELECTIVE SUBJECT GROUP-I
ELECTRIC INSTALLATION GROUP
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
ELECTRICAL ENERGY GENERATION
EMÜ-352
3
3 hours/week
Dr. Mehmet CEBECİ
3rd / Spring
Elective
Conventional and renewable energy sources. Classification. Power
calculation of hydro power plant (HPP). Intake of HPP: trashrack, cover,
valve, surge tank, power tunnel, penstock. Hydraulic turbine types which are
Kaplan, Francis and Pelton turbines. Cavitation and eddy on water turbines.
Frequency and voltage stability on HPP (speed and voltage regulation).
Fossil fuiled power stations. Furnace, Boiler, pressurized steam systems,
condenser and cooling tower. Structure and working properties of nuclear
power plants. Moderator and control rods. Generating electric from solar
energy. Photovoltaic cell systems. Aerogenerator, wind turbines and types.
Aerogenerator units. Working and properties of diesel plants. Diesel
generators. Power generating and statistics. Daily load and energy curves.
Environmental problems of plants.
To teach the students generating methods of electric energy and calculations.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Hidroelektrik Santrallar Hesap Esasları ve Projelendirilmesi, Kadir Yıldız.
Elektrik Enerjisi Üretim Santralleri, Behçet Kocaman. Buhar Santralleri,
Yavuz Heper. Powerplant Technology, M.M.El-Wakil. Modern Power Plant
Engineering, Joel Weisman, Roy Eckart. Wind and Solar Power Systems,
Mukund R. Patel.
ELECTRICAL ENERGY TRANSMISSION
EMÜ-356
3
3 hours/week
Dr. Muhsin Tunay GENÇOĞLU
3rd / Spring
Elective
None / Electrical Installations.
Equivalent circuit and electrical calculation of long transmission lines.
Obtaining of line head voltage equation and line head current equation.
Equivalent Π and equivalent T circuits of long transmission lines. Special
conditions of long transmission lines. Asymmetric Π circuit and asymmetric T
circuit. Parameters of four point line. Connecting of transmission lines series
and parallel. Different conditions equation for mechanical calculations of
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
transmission line. Definitions of range. Calculation of critical range and critical
temperature. Up- lift control. Calculation of expropriation areas and access
areas. Wipped up. Calculation of (ag-aw) equation. Oscillation diagrams of the
line. High voltage towers and very high voltage towers, characteristics and
ground structures of these towers. To use as carrier in corner tower to carrier
tower. Special subjects.
The aim of this module is to learn electrical and mechanical calculations of
electrical energy transmission lines.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Enerji Hatları Mühendisliği, H.Hüsnü DENGİZ, Kardeş Kitabevi. Enerji
İletimi (Elektrik Hesaplar), Prof. Dr.Hüseyin ÇAKIR. Orta Gerilim Enerji
Nakil Hatları Proje I-II, Atilla YUNUSOĞLU. Çözümlü Enerji Taşıma
Hatları ve Enerji Taşınması Problemleri, Prof. Muhittin DİLEGE.
ELECTIVE SUBJECT GROUP-I
CONTROL AND COMPUTER GROUP
SYSTEMS DYNAMICS AND INTRODUCTION TO CONTROL
Module Code Number
EMÜ-318
Number of ECTS Credits
3
Hours / Week
3 hours/week
Module Lecturer
Dr. Ahmet UÇAR
Year / Term
3th / Spring
Type of Course
Elective
(Compulsory / Elective)
Pre requisites / Recommended
None / Circuit theory, Advanced Mathematics I and II.
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
Recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
Some initial considerations, Mathematical requirements; Modelling, OneDimensional Flows; vector field and potentials, Linearization, Transfer
function and convolution integral. State variables, Basic system dynamics;
first order system, second order systems and their physical considerations.
Open and closed loop systems, Time responses of first and second order
systems and their properties. Frequency response, Polar and Bode diagrams,
Frequency response transfer function, Frequency response of fist and second
order systems, Introduction to optimal systems, The performance index.
Modelling dynamical systems. Introducing methods for modelling dynamical
system. Gives properties of dynamical system. Develops skills to analyse
dynamical and control systems. Introducing the optimal systems.
One written midterm exam (40%) and one written final exam (60%)
Turkish
An Introduction to Dynamics and Control: by R. J. Richards, Longman
Scientific and Technical.
/Control System Design: by G. C. Goodwin, S. F. Graebe and M. E. Salgado,
Prentice Hall
DIGITAL SIGNAL PROCESSING
EMÜ-318
3
3 hours/week
Dr. Yetkin TATAR
3th / Spring
Elective
None
Signals, digital signals, real-time digital signal processing and their Sİİs,
Recursive and nonrecursive number systems. Differential equations that
model systems and solution methods for them, z-transformation and
applications, Exceptional time Fourier transformations, speedy fourier
transformations and applications, digital filters. Forming these subjects under
Matlab environment and commenting on results.
Teaching basic subjects and concepts of digital signal processing, and
interpretation of systems at digital environment from a view of Computer
Engineering.
Understanding importance of real-time Gerçek digital signal processing and
forming concepts to choose required hardware.
By modelling of digital systems, interpreting systems with a new point of
view.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Alan V. Oppenheim v.d.”Discrete-time Signal Processing”, Pentice Hall1999
Prof.Dr. Veysel Silindir v.d, ”Sinyaller ve Sistemler”, Nobel dağıtımAnkara-2001
Emanuel C. Ifeachor, v.d. “Digital signal Processing – A Practical
Approach”, Addison- wessly- 1994 .
MATLAB software package
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
Recommended readings
ELECTIVE SUBJECT GROUP-I
ELECTRONICS AND COMMUNICATION GROUP
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Prerequisites / Recommended
Module Contents
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
Module Code Number
Number of ECTS Credits
Hours / Week
Module Lecturer
Year / Term
Type of Course
(Compulsory / Elective)
Pre requisites / Recommended
Module Contents
FILTERS
EMÜ-340
3
3 hours/week
Dr. Melih Cevdet İNCE
3th / Spring
Elective
None / Circuit Theory
Review of continuous-time signals and systems. Concept of filtering.
Butterworth, Chebyshev, elliptic, filters., etc. Frequency transformations.
Phase and loss equalizers. Synthesis of passive filter networks. Active filters.
The aim of this module is to provide an introduction to the basic concepts
and realization methods used in analog filters.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Introduction to Filter Theory, David E.Johnson,Prentice-Hall., Englewood
Cliffs, New Jersey.
Devre Sentezi Ders Notları , Fuat Anday, İ.T.Ü.,İstanbul
ELECTROMAGNETIC WAVES
EMÜ-342
3
3 hours/week
Dr. Hasan H. BALIK
3rd / Spring
Elective
None / Mathematics I and II., Advanced Mathematics I and II.,
Electromagnetcs I and II
Maxwell’s Equations in differential and integral forms. The law of
conservation of charge, Duality and Lorentz’s Reciprocity Teorem. Plane
Electromagnetic Waves, Waves in good conductors and in Plazmas.
Reflection and refraction: The basic laws and Fresnel’s equations. Snell’s
Law. The Brewster angle. Nonuniform plane waves and total reflection.
Reflection and refraction at the surface of an good conductors. Guided
Aims and Objectives of the
module
Method of assessment
Teaching Language
Textbook /
recommended readings
waves.
The aim of this module is to provide an knowledge Electromagnetic Waves.
One written midterm exam (40%) and one written final exam (60%)
Turkish
Electromagnetic Fields and Waves (Paul Lorrain etc., W.H. Freeman
Company, ISBN :0-716-71869-3)