Faculty of Engineering

Electrical and Electronics Engineering

Duration 4 Years
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About the Program

Electrical and Electronic Engineering covers electrical plants, electronics, telecommunications, circuits and systems, electromagnetic fields, disciplines of microwave technology, robotics and control systems. Electrical Plants contain the design, operation, and maintenance of high-voltage devices, and also the design of various devices that belong to electricity generation and distribution systems; electronics, telecommunications, circuits and systems including the design, development, operation and maintenance of systems operating at low voltages. The electromagnetic fields and microwave techniques are involved in many systems that operate with high and low voltage devices. Control and robotic systems are mostly used to control high voltage devices by making use of the devices which operate at low voltage. Graduates are able to work in the telecommunications industry, alternative energy, and automation systems. The undergraduate program in Electrical and Electronics Engineering is offered in both English and Turkish.

Education Opportunities

Education and training activities in the Department of Electrical and Electronic Engineering are offered in laboratories equipped with state-of-the-art equipment and in classrooms with all the up-to-date technological facilities. There are eight faculty members who have completed postgraduate degrees in qualified and well-known universities. The faculty is composed of experienced academics who continue their scientific studies in their own fields of expertise, by supervising theses for postgraduate students. In addition to our two four-year undergraduate programs, there are Master of Science (M.S.) and Doctor of Philosophy (Ph.D.) programs focusing on academic research and development. Our undergraduates have the opportunity to specialize in fields, which are planned and offered based on today’s needs and expectations such as electrical plants, electronics, telecommunications, circuits and systems, electromagnetic fields, microwave technology, and robotic and control systems.

CIU-elektrik-elektronik-muhendisligi-programi-1

Accreditations

Electric-Electronic Engineering Program has been accredited by the Engineering Education Programs Evaluation and Accreditation Association (MÜDEK) in 2014, and has registered its place as a program with international quality standards. The program was also awarded the European Accredited Engineer Label EUR-ACE by MÜDEK.

Career Areas

Graduates of this department can work in big sectors, such as telecommunications, automation, and energy as engineers or in management in many fields of the industry. Graduates can also make major contributions to research and development in the R&D departments of a wide range of institutions and organizations. These include the Ministry of Energy and Natural Resources, electricity distribution companies, electricity transmission companies, construction companies, aerospace industries, automotive industry, scientific and technological research institutions, electronics and telecommunication design and manufacturing companies (e.g. Arçelik, Vestel Electronics, Beko, Turkcell, Aria, Huawei, and Ericsson).

In addition, our graduates can get a Free Engineer Consultant (SMM) authority as a member of the Electrical Engineers' Association (EMO), and they can easily carry out tasks specific to electrical engineering such as designing, implementing, testing, controlling, and signing.

Contact

Faculty of Engineering
Science and Technology Center, ST226
Tel: +90 392 671 1111 Extension: 2401
Faculty E-mail: secretary-fe@ciu.edu.tr
Head of Department: Prof. Dr. Mehmet Kuşaf
Head of Department E-mail: mkusaf@ciu.edu.tr

 

Compulsory modules

First Semester
GENERAL CHEMISTRY

Course code

CHEM110

Credit

4

Theoretical

3

Practical

2

Ects

6
In this course, Engineering and Pharmacy Faculty students will learn types of matter, measurements, properties of substances; atoms and atomic theory, components of the atom, introduction to the periodic table, molecules and ions, formulas of ionic compounds, names of ionic compounds; atomic masses, the mole, mass relations in chemical formulas, mass relations in reactions; measurements on gases, the ideal gas law, gas law calculations, psychometric of gaseous reactions, gas mixtures: Partial pressures and atomic spectra, the hydrogen atom, quantum numbers, atomic orbitals; shape and sizes; electron configurations in atoms, orbital diagrams of atoms; polarity of molecules; principles of heat flow, measurements of heat flow, calorimetry, enthalpy, thermochemical equations, enthalpies of formation, the first law of thermodynamics, liquids and solids.
INTRODUCTION TO COMPUTING

Course code

CMPE101

Credit

3

Theoretical

2

Practical

2

Ects

5
This course presents the basics of computer systems. The course is structured in two parts; including a short history of computers, the first part of this course presents the history, basic concepts and terminology of information technology, basic hardware and software components of a computer system, and integration of computer system components. Besides the terminologies and abbreviations, the students learn about the hardware setup of a personal computer and the relations between the processor, memory and secondary devices. The laboratory part includes basic computer usage and office programs (MS Word, Excel). In the second part, basics of problem solving approaches, components and construction of computer programs, flow-charting, and modular programming issues are discussed. Basics of C programming language are covered in classroom.
INTRODUCTION TO ELECTRICAL & ELECTRONIC ENGINEERING

Course code

EELE100

Credit

0

Theoretical

1

Practical

0

Ects

1
Short history of Electrical and Electronic Engineering.Definition, scope and occupation areas of Electrical and Electronic Engineering. Interaction between related scientific and engineering fields. Academic staff and main scientific subdivisions and laboratories of the department. Vision, mission, program objectives and outcomes of the department. Education plan and quality development program of the department.Student counseling system and surveying. Summer training, technical trips, seminars and meeting activities of the department. Social and universal impact of Electrical and Electronic Engineering. Effective written and oral communication in engineering. Team work and project management in engineering. Ethical and professional rules in engineering.Life long learning concept.
READING AND WRITING SKILLS-I

Course code

ENGL141

Credit

3

Theoretical

2

Practical

2

Ects

4
This course aims to develop students' listening, speaking, reading - writing and study skills. The course provides students with the opportunity to develop their communication skills through controlled activities and to equip students with the basic study skills necessary to follow the curriculum of English. This course also provides students with the opportunity to process the newly acquired knowledge and to develop their ability to ask questions about how to apply the new knowledge to new situations and ask them to think critically. In addition, this course will enable students to learn about the different strategies required to review the various reading pieces, such as finding the main idea and distinguishing the details from the main idea.
HISTORY OF CIVILIZATION

Course code

HIST100

Credit

0

Theoretical

2

Practical

0

Ects

2
The aim of this course is to outline the development of civilizations in the course of history. It firstly focuses on the concepts such as “Civilization”, “Prehistoric”, and “Historic” and on the factors forcing the emergence of the first civilizations. As well as examining the prehistoric periods and their characteristics in the course of human life since the first appearance of human beings on earth, the course mainly focuses on the early civilizations, namely the Mesopotamian, Egyptian, Aegean, Classical Greek, Hellenistic, Indian, Chinese and Roman Civilizations. Political, social, economical, cultural, intellectual, philosophical and scientific aspects in these entities are also examined in this course.
CALCULUS-I

Course code

MATH101

Credit

4

Theoretical

3

Practical

2

Ects

6
Calculus-I provides the methods of differential and integral calculus with applications in geometry, physics and engineering. Students in this course will learn how to use mathematical language needed for applying the concepts of calculus to numerous applications in science and engineering such as identifying types of functions, graph of functions, evaluating limit of functions, limit of elementary functions (polynomial, trigonometric, logarithmic, exponential,…), methods to solve the undefined limits (L’Hopitals Rule), continuous functions, evaluate derivative of functions, definition of derivative, derivative of elementary functions, derivative of product of two functions and division of functions, applications of derivative, evaluate integrals of functions, definition of the integral, integral of elementary functions, substitution method, integration by parts, integral of rational functions, application of the integral (finding the area) .
LINEAR ALGEBRA

Course code

MATH121

Credit

2

Theoretical

2

Practical

0

Ects

4
The aim of this course is to introduce the basic operations in linear algebra and applications in engineering problems; matrices, matrix properties and matrix operations: Addition, scalar multiplication, multiplication, transpose, solution of system of linear equations: Elimination method, Gauss Jordan forms, inverse method to solve linear systems, row reduced echelon forms, Gaussian elimination method, inverse and determinants: solving linear equations with determinant (Cramer's rule), use one row to evaluate determinant, minor, cofactor, adjoint matrix, identity matrix, square matrix of the matrices. Real vector spaces, vectors and their properties and applications in engineering: Addition, subtractions, dot product, scalar multiplication, cross product, basis, dimensions and subspaces.
MODERN TURKISH HISTORY

Course code

TARH100

Credit

0

Theoretical

2

Practical

0

Ects

2
In this course, Ottoman state and society, factors causing the collapse of the state; Ottoman modernization; Tripoli and Balkan Wars, World War I, Mudros Armistice and Sevres Agreement; parties and associations, the national resistance movement led by Mustafa Kemal, the Havza and Amasya Circulars, the Congresses, the National Pact, the Turkish Grand National Assembly; the rebellions, the regular army and the War of Independence; the Mudanya Armistice, the Lausanne Peace Treaty; Revolution in the political field, secularization of the state and society, abolition of the sultanate, declaration of the republic, abolition of the caliphate; 1921 and 1924 constitutions, constitutional changes; Sheikh Said Rebellion; Multi-party experience, secularization and modernization in law, nationalization and secularization in education, Kemalizm and 6 principles, Turkish foreign policy(1923-1938) are covered.
Second Semester
INTRODUCTION TO PROGRAMMING

Course code

CMPE112

Credit

4

Theoretical

3

Practical

2

Ects

6
The course will introduce basic and fundamental programming constructs and techniques through using the C++ programming language in order to generate algorithmic solutions to problems. Upon completion of the course, students will learn an introduction to algorithms, solving problems by flowcharts and pseudo codes, header files, data types, arithmetic & logic operators, control statements (if, if/else, switch-case) and use them as inner statements, loop statements (while, do/while, for), functions, standard functions of programming language, random number generation and their area of use, user-defined functions, global and local variables, recursion, arrays, searching algorithms on arrays, sorting algorithms on arrays, pointers, pointer operators, using pointers with arrays and functions. In the laboratory hours, students are supposed to write full programs or modify existing programs for other solutions.
READING AND WRITING SKILLS-II

Course code

ENGL142

Credit

3

Theoretical

2

Practical

2

Ects

4
This course is the continuation of ENG 101. The course aims to improve students' listening, speaking, reading, writing and working skills. In the course, students are guided in writing compare and contrast essays using Venn diagram. In addition, the aim of the course is to learn the necessary conjunctions for composition writing. In addition, the students will be able to write a four-part critical composition by learning the difference between ideas and factual real sentences and how to write the opposing opinion and sentences used to refute it. Thus, the students will be able to distinguish between the compare and contrast essay and discursive essay. Students will also be able to make presentations by using presentation techniques. In addition, this course aims to summarize the reading pieces of the students and to use the strategies of reading and to draw conclusions and meanings using their reading skills.
CALCULUS-II

Course code

MATH102

Credit

4

Theoretical

3

Practical

2

Ects

6
This course provides the methods of differential and integral calculus with applications in geometry, physics and engineering. Topics included are as follows: Sequences and infinite series, properties of sequences, test for convergence, tests for series with both positive and non-positive series, absolutely convergence and conditionally convergence . Power series, Taylor and Maclaurin series, the radius of convergence. Parametric equations and Polar coordinates, the graph of polar equations, the area in polar coordinates, arc length, speed on a curve and derivative of polar equations. Vectors and vector-valued functions, dot product and cross product of two vectors. Lines and Planes. Functions of several variables, their domain, limit and partial derivatives and definite integral of a function over a region.
DISCRETE MATHEMATICS

Course code

MATH122

Credit

3

Theoretical

3

Practical

1

Ects

5
The objective of the course is to introduce the students fundamental principles: logic and Boolean algebra, set theory, relations( Partial ordering, Total ordering and Hasse diagrams, Equivalence relations and equivalence classes), functions(one-to-one, onto, identity, inverse and composition of functions), inductive proofs and recurrence relations, counting techniques(multiplication and addition rules, permutations, combinations, unordered samples with repetitions, principle of inclusion and exclusion, pigeonhole principle) and introduction to graph theory(basic terminology like vertex, edge, degree of a vertex in directed and undirected graphs, Eulerian and Hamiltonian graphs, trees and spanning trees, minimal spanning trees, Prim’s Algorithm, Kruskal Algorithms, Shortest Path Problems, Dijkstra’s Algorithm).
GENERAL PHYSICS-I

Course code

PHYS101

Credit

4

Theoretical

3

Practical

2

Ects

6
The aim of the course is to provide the basic information in order to help the students to understand the possible complicated problems in engineering. In this regard, the basic principles and methods of solving the problems in physics are thought. The course provides a basic grounding in elementary physics including mechanics. The basic subjects of the course are: Units and dimensions, Uniformly accelerated motion in one dimension, Freefall, Vector mathematics, Two dimensional motion, Newton’s laws of motion, Applications of Newton’s laws, Free body diagrams, Circular motion, Work and energy, Conservation of energy, Momentum, impulse, and collisions, Rotational kinematics, Torque, Static equilibrium. For completeness, the students are supposed to do 6 experiments related to the subjects of the course.
TURKISH LANGUAGE

Course code

TREG100

Credit

0

Theoretical

2

Practical

0

Ects

2
This course examines basic areas of language and expression. In the first half of the course, the theoretical approach to language is formed and the spelling rules of the Turkish language are studied. In the latter part of the course, language and narrative errors are studied together with editing. In the second half of the course, formal writing, curriculum vitae, petition, evaluation of the columns in terms of language and style, types of written expression and practice; Turkish production and application of shooting attachments; Turkish grammar structure; It is aimed to teaching subjects like phonetics of Turkish to students.
TURKISH

Course code

TURK100

Credit

0

Theoretical

2

Practical

0

Ects

2
This course provides an orientation to modern Turkish language for foreign students who wish to communicate in this language for their needs. It mainly focuses on the differences between Turkish and English Alphabets, especially the sounds and the letters which are not included in the English alphabet (i.e. Turkish letters ç-ğ-i-ö-ş-ü). In addition, basic grammar and sentence structure forms in Turkish are practised. The required grammar and vocabulary will also be developed through their adaptation to daily situations in contexts such as introducing yourselves, greeting, talking about the things they possess by using possessive adjectives, forming positive, negative and question sentences by using present simple, telling the time, talking about their own timetables, using demonstrative pronouns when describing the place of objects and becoming familiar with vocabulary related to family members.
Third Semester
DIGITAL LOGIC DESIGN

Course code

EELE221

Credit

4

Theoretical

3

Practical

2

Ects

5
This course presents the basic tools for the design and analysis of digital circuits and provides methods and procedures suitable for a variety of digital design applications in computers, control systems, data communications, etc. The course introduces data representation in binary systems, complements, Boolean algebra, logic gates, truth tables, logic circuits, timing diagrams, De Morgan's law, algebraic manipulation, minterms and maxterms, Sum of Products (SOP) and Product of Sums (POS) forms, Boolean function simplification tools and Karnough Map method, NAND and NOR implementations, don't care conditions, combinational circuit design and analysis procedures, and design of Adders, Subtracters and Code Converters.
FREE ELECTIVE

Course code

EFEX11

Credit

3

Theoretical

3

Practical

0

Ects

4
SERBEST SEÇMELİ
DIFFERENTIAL EQUATIONS

Course code

MATH203

Credit

3

Theoretical

3

Practical

1

Ects

6
In this course, the ordinary differential equations and their applications will be considered. The course will demonstrate the usefulness of ordinary differential equations for modelling physical and engineering problems. Complementary mathematical approaches for their solution will be presented, including analytical methods. The basic content of the course includes first order ordinary differential equations and their types of exact, separable, Bernoulli, first order, homogeneous ordinary differential equations, linear independence of the solutions, higher order ordinary differential equations and their solutions. The undetermined coefficient methods, the variation of the parameter method, Cauchy-Euler equations. The definition of the Laplace transform and some important applications of the Laplace transform will be included in this lecture.
INTRODUCTION TO PROBABILITY AND STATISTICS

Course code

MATH205

Credit

4

Theoretical

4

Practical

1

Ects

6
The objective of this course is to introduce basic probability and statistics concepts. The focus of this course is on both applications and theory. Topics include: introduction to random variables, simple data analysis and descriptive statistics, frequency distribution, cumulative distribution, sample space, events, counting sample points (basic combinatorics), probability of an event, probability axioms, laws of probability, conditional probability, Bayes’ rule, discrete and continuous random variables, probability distributions, cumulative probability distributions, discrete and continuous probability distributions, discrete uniform, Binomial, Geometric, Hypergeometric, Poisson, Continuous uniform, Normal Disributions, Gamma and Exponential distribution, jointly distributed random variables, expectation and covariance of discrete and continuous random variables, random sampling, sampling distributions, distribution of Sample Mean, Central Limit Theorem(CLT).
GENERAL PHYSICS-II

Course code

PHYS102

Credit

4

Theoretical

3

Practical

2

Ects

6
This course provides the basic information to help the students to understand the possible complicated problems in engineering. The subjects of the course are mostly Electricity and Magnetism. The basic subjects of the course are Properties of electric charges, Coulomb’s law, and Electric field of a continuous charge distribution, Gauss’s law and electric flux. Application of Gauss’s law to charged insulators, Obtaining the value of the electric field from the electric potential, Electric potential and the potential energy due to point charges, Electric potential due to continuous charge distributions, Electric current, Resistance and Ohm’s law, Electromotive force, Resistors in series and in parallel. Kirchhoff’s rules. For completeness, the students are supposed to do 6 experiments all are related to the subjects of the course.
Fourth Semester
CIRCUIT THEORY I

Course code

EELE202

Credit

4

Theoretical

3

Practical

2

Ects

6
The course provides students with fundamental Concepts of Circuit Theory: Current, Voltage, Power and Energy as well as Definitions of Circuit Componentes: Voltage Current Sources; Resistors and Ohm's Law. Computation of Power over a Resistor, Set Up Circuit Model. Kirchhoff's Current and Voltage Laws. Resistors in Series and Parallel Configuration; Voltage and Current-Divider Circuits. Ampermeter, Voltmeter and Ohmmeter Circuits. Wheatstone Bridge, Triangle-Star Transformation. Loop Currents and Node Voltages Techniques, Source Transformation. Linearity and superposition principles, source transformations. Thevenin's and Norton's Theorems, Maximum Power Transfer, Graf Theory. Inductance and capacitance. The natural and forced response of the first – order (RL and RC) circuits. Natural and step responses of second-order RLC circuits.
ELECTRONIC PROPERTIES OF MATERIALS

Course code

EELE224

Credit

3

Theoretical

3

Practical

0

Ects

5
Wave-particle duality . Electromagnetic radiation behaving like particles. Photoelectric effect. Compton effect. De Broglie's hypothesis. Heisenberg's uncertainty principle. Overview of classical mechanics. Schrödinger's wave equation. Interpretation of wave function. Free electrons. Infınite square well. Tunneling. Scanning tunneling microscope. Three dimensional potential box. Hydrogenic atom. Electron spin. Stern-Gerlach experiment. Pauli's exclusion principle. Lasers. Free electron theory of metals. Fermi-Dirac statistics. Fermi energy. Band theory of solids. Fermi-Dirac statistics. Intrinsic semiconductors. Electrons and holes.Conduction in semiconductors. Semiconductors; impurities; carrier transport in semiconductors; generation and recombination of minority carriers. n- and p-type doping. Compensation doping. Semiconductor devices. Ideal p-n junction.
ELECTROMAGNETIC THEORY I

Course code

EELE234

Credit

3

Theoretical

3

Practical

1

Ects

6
Review of vector calculus. Electrostatics in vacuum. Coulomb's Law and Gauss's laws; Electric Field. Electrical Potantial,Force-Energy and Potantial Units. Poisson's and Laplace's equations. Conductors in the presence of electrostatic fields. Method of images. Dielectrics; polarization. Dielectric boundary conditions. Capacitors with Dielectrics, Energy of the Capacitor and Capacitance. Electrostatic energy. Electrostatic forces by the virtual work principle. Steady currents. Ohm's and Joule's laws. Static Magnetic Fields of Stable Electric Currents. Resistance calculations. Magnetostatics in vacuum. Ampere's force law. Biot-Savart law. Magnetic vector potential. Ampere's circuital law. Magnetic boundary conditions. Magnetic dipole. Magnetization. Hysteresis curve. Self and mutual inductance. Magnetic stored energy. Magnetic forces by the virtual work principle.
FREE ELECTIVE

Course code

EFEX12

Credit

3

Theoretical

3

Practical

0

Ects

4
FREE ELECTIVE
ENGINEERING ECONOMY

Course code

INDE232

Credit

3

Theoretical

3

Practical

0

Ects

4
The purpose of this course is to provide an introductory basis for economic analysis in decision making process in engineering design, manufacturing equipment and industrial projects. This course aims to supplement engineering students with the knowledge and capability to perform financial analysis especially in the area of capital investment. It emphasizes the systematic evaluation of the costs and benefits associated with proposed technical projects. The student will be exposed to the concepts of the “time value of money” and the methods of discounted cash flow. Students are prepared to make decisions regarding money as capital within a technological or engineering environment. Assignments and homework help and guide the students to apply the knowledge acquired during the course.
MATHEMATICAL METHODS FOR ENGINEERS

Course code

MATH202

Credit

4

Theoretical

3

Practical

2

Ects

6
Aim of this course is to give complex analyse and fundamental methods to solve numerical problems in mathematics, computer science, physical sciences and engineering. Topics included are as follows: Definitions: Error types, Taylor series and truncation error and rounding numbers. Numerical solution of nonlinear equations; Bracketing methods, Bisection and False position, Iterative methods: Fixed point and Newton method. Numerical methods for solution of linear systems, Iterative methods and LU decomposition methods. Interpolation and polynomial approximation, Lagrange polynomials, Least square lines, curve fitting and spline functions (linear and quadratic). Evaluate derivatives by numerical analysis, numerical differentiation, finite difference formulas. Evaluate integrals by numerical analysis, numerical integration, Simpson's rules and Trapezoidal rules. Complex numbers, complex functions, derivative and integral of complex functions.
Fifth Semester
CIRCUIT THEORY II

Course code

EELE301

Credit

4

Theoretical

4

Practical

1

Ects

6
Impedance, admittance and Kirchhoff"s laws in the frequency domain. Sinusoidal steady state analysis using the nodal and mesh techniques. Sinusoidal steady state analysis using source transformation and superposition. Thevenin and Norton Equivalents in the frequency domain. Instantenous power, average power and RMS value. Maximum average power transfer. Apparent power, power factor and the complex power. Power factor correction. Balanced Three-Phase voltages. Balanced Three-Phase connections: Y-Y, Y-Delta, Delta-Delta. Power in three phase systems. Mutual inductance and energy in a coupled circuit. Linear transformers. Ideal transformers. Transfer function, the decibel scale and Bode plots. Series and parallel resonance. Passive filters Active filters, properties of the Laplace transform. Applicaton of the Laplace transform. Application to integrodifferential equations and network stability.
SIGNALS & SYSTEMS

Course code

EELE321

Credit

4

Theoretical

4

Practical

1

Ects

7
Classification of Signals and Basic Signal Properties. Time Domain Models of Linear Time Invariant (LTI) Systems: Continuous time systems. Causal LTI systems described by differential equations. System block diagrams. The solutions of differential equations. The unit impulse response and convolution integral. State variable analysis of LTI systems. Discrete time systems. The unit sample response and discrete convolution. Fourier series and Fourier transform representation of continuous-time and discrete- time periodic signals. Time and frequency characterization of signals and systems. Z-transform and inverse z-transform. Region of convergence of the z-transform. z-domain analysis of discrete LTI systems. LTI Systems With Random Inputs. Definition of Random variables, stochastic process, first and second order statistics, moment, correlation and co-variance, stationary process, ergodicity. System resonse.
ELECTROMAGNETIC THEORY II

Course code

EELE331

Credit

3

Theoretical

3

Practical

1

Ects

6
Review of Electromagnetic Field Theory. Electromagnetic induction; Faraday's and Lenz's laws; transformer and motional Electromotive force; induction heating; transformer; displacement current; time-varying fields; Maxwell’s Equations in differential and integral forms; the law of conservation of charge; wave equations; time-harmonic fields; complex phasors; scalar and vector potential functions; plane waves in vacuum; plane waves in dielectrics and conductors; polarization; skin effect; Electromagnetic energy and power; Poynting's theorem; Electric and Magnetic Field Boundary Conditions Boundary conditions for the tangential and normal components of the fields. Reflection and refraction of plane waves at dielectric interfaces; 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, standing waves.
ELECTRONICS I

Course code

EELE341

Credit

4

Theoretical

3

Practical

2

Ects

7
Operational amplifiers: common mode and difference mode process. Op-amp applications: voltage adder, voltage follower, differential amplifier, derivate and integrator circuits, active filter design. Semiconductor elements and diodes. Diode equivalent circuits. LEDs and zener diodes. Load line analysis. Half-wave and full-wave rectifier circuits. Bipolar junction transistor: Operation limits of transistors, testing and electrical specifications. DC biasing of transistors: Determining of operation point, voltage divider biasing, voltage feedback biasing and other biasing types. Transistor switching circuits. PNP transistors and stability of biasing. Characteristic of field effect transistors. Depletion-type MOSFETs, Enhancement-type MOSFETs, VMOS and CMOSs. Biasing of field effect transistors. Self-biasing and voltage divider biasing. Biasing of depletion-type MOSFETs and enhancement-type MOSFETs. Other two gates: Varactor, power diodes, tunnel diode, photodiode.
ELECTROMECHANICAL ENERGY CONVERSION

Course code

ENRE305

Credit

4

Theoretical

3

Practical

2

Ects

5
This course analyzes magnetic materials, magnetic parameters and magnetic properties of the materials. Application of soft magnetic materials and magnetic circuits are also involved in the course. Single phase transformers are analyzed in two categories such as ideal transformers and real transformers. Special purpose transformers such as auto-transformers and their power rating advantage are analyzed. This course also aims to examine three-phase transformers and their functions in power distribution systems. DC machinery fundamentals, simple rotating loop, power flow and losses of real DC machines, analysis of shunt and series connected DC machines and DC generator fundamentals are also take significant part in the course.
Sixth Semester
MICROPROCESSORS

Course code

EELE324

Credit

4

Theoretical

3

Practical

2

Ects

7
The Microprocessors course includes the understanding of the main components and working principals of the microprocessor. Intel 80x86 family is used as a base microprocessor architecture. Course content includes the understanding of the basic computer architecture, memory organization and memory interfacing, programming and debugging in assembly language, developing programs that perform unsigned arithmetic (addition, subtraction, multiplication, and division), BCD, ASCII, logical and bitwise manipulation operations, performing input/output device programming in assembly language, input characters or strings from keyboard, output characters or strings to the screen, convert data to ASCII, packed BCD, unpacked BCD. Also, understanding the properties and interfacing of the parallel and serial ports and the design and interfacing of microprocessor-based systems using the real world example of the 80x86 IBM PC are in the scope of the course.
LINEAR CONTROL SYSTEMS

Course code

EELE326

Credit

4

Theoretical

4

Practical

1

Ects

6
Concepts of modeling, and analysis of electromechanical systems in time and frequency domains, feedback and feed forward controllers, stability criteria, design of controllers. Physical systems and the concept of control systems, mathematical backgraund, mathematical modelling of physical systems, transfer functions, block diagrams, signal flow grapghs, state variables and state-space modelling, simulation diagrams and computer simulation of the systems, test signals and transient responses of first and the second order systems. Design in time and frequency domains. Root locus analysis and design, Stability of control systems. The concept of Routh-Hurwitz stability, Nyquist stability criterion, and Bode plots. PID controllers: analysis and design. Optimal control systems, intelligent control, introduction to digital control systems. Computer based simulations and applications related to all topics.
ELECTRONICS II

Course code

EELE342

Credit

4

Theoretical

3

Practical

2

Ects

6
Junction field-effect transistors (JFETs): physical structure and modes of operation, input and output parameters and characteristics. JFET biasing configurations, fixed bias, self bias, Small-signal analysis of JET amplifiers Frequency response of BJT amplifiers, high-frequency BJT model, Miller’s theorem. High frequency response of commonemitter amplifier, bandwidth estimation, bode plots. High frequency response of JFET amplifiers, JFET model at high frequency, high frequency response of BJT amplifiers. Broadband amplifier design, single-stage broadbanding techniques, gainbandwidth product, base compensation. Cascade amplifiers. Multistage amplifiers. BJT differential amplifier, differential and common-mode gains, biasing, current mirror Feedback amplifiers, the general feedback structure, properties of negative feedback:. The four basic feedback topologies, determining the loop gain, stability problem.
POWER ELECTRONICS

Course code

EELE344

Credit

4

Theoretical

3

Practical

2

Ects

6
Introduction to power electronics, types of power electronic circuits. Single phase half wave rectifiers.Single phase full wave rectifiers with resistive and with inductive load. Thyristor characteristics; turn on, turn off behaviors and types. Single phase controlled rectifier with resistive and with inductive load. Free wheeling diodes, single phase full converters with resistive and with inductive load.Single phase semiconverters. Three phase semiconverters and three phase bridge rectifiers. DC-DC converters; principles of step down operation, step down converters with inductive load. Principle of step up operation, step up converter with resistive load. Performance parameters and converter classifications. Pulse width modulated inverters. Single and three phase bridge inverters. Voltage control of single phase inverters
COMMUNICATION SYSTEMS

Course code

EELE362

Credit

4

Theoretical

4

Practical

1

Ects

7
Properties of signals and noise, Fourier Transform and properties of the Fourier Transform. Power spectral density and autocorrelation function, Fourier series expansion and linear systems. Discrete Fourier Transform (DFT), bandwidth requirement of signals. Pulse Amplitude Modulation (PAM) employing natural sampling and flat-top PAM. Pulse Code Modulation (PCM): Sampling, quantizing and encoding, bandwidth requirement of PCM, quantization noise, binary line coding. Inter-symbol Interference (ISI), Nyquist’s method for zero ISI and roll-off filtering. Time-division multiplexing (TDM) and TDM hierarchy, frame synchronization. Radio Frequency (RF) components: limiters, mixers, up and down converters, frequency multipliers, etc. Envelope detector, product detector, frequency detector, PLL. Generalized transmitters and receivers: The superheterodyne principle. Amplitude modulation (AM), Double-Sideband Suppressed Carrier (DSBSC) and asymmetric sideband signals (SSB, VSB). Phase and frequency modulated signals (FM, PM).
Seventh Semester
SUMMER TRAINING

Course code

EELE300

Credit

0

Theoretical

0

Practical

0

Ects

1
Engineering summer training is the thirty working days long internship period in which the engineering students are expected to apply their theoretical knowledge, which they acquired during their Bachelor level studies, in a real life professional environment. Summer training can be performed at any institution which is involved in any of the Electrical and Electronic Engineering subdisiplines. During the training, the engineering students encounter with the professionals and the real life tasks, so that they have a better chance to prepare themselves for the industries’ needs and decide on their exact field of professional interests. At the end of the thirty days of training, which is performed after the third year of the bachelor studies, the students write their summer training reports which summarize their internship experience. The internship period of a student is then judged by the committee evaluation of his/her summer training report.
ROBOTICS

Course code

EELE411

Credit

3

Theoretical

3

Practical

1

Ects

5
This course introduces fundamentals of robot control. Brief review about robots, hardware and robot problems will be explained to give a general idea about the use of robotics. Various types of basic sensors are also be discussed under the issue of robot hardware. Agent function design will be taught to gain robot control algorithm development and design. Robot control programming with mostly used controllers and related programming language concepts will also be covered to improve hardware programming skills of participants of this course. Lectures give the background to the extensive hands-on practical work using the laboratories A practical project will be performed to have an experience about to control a real robots with microcontroller.
PROGRAMMABLE LOGIC CONTROLLERS

Course code

EELE415

Credit

4

Theoretical

3

Practical

2

Ects

6
The aim of this course is to provide an introduction to programmable logic controllers. The basic architecture of PLCs and the commonly used input and outputs in such systems are included in the course. The relationship between the PLC operation and the Logic gates are stated. The programming languages which are used in PLC are examined. Furthermore, the Ladder Diagram technique is developed involving internal relays, timers and counters. The course includes compare and program control instructions. Both 16 and 32 bit operations are used in basic math instructions. It also includes the examples of important industrial applications that uses PLC.
ELECTRICAL MACHINERY

Course code

EELE453

Credit

3

Theoretical

3

Practical

1

Ects

6
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
FACULTY ELECTIVE

Course code

EFEXX1

Credit

3

Theoretical

3

Practical

0

Ects

5
PROJECT MANAGEMENT

Course code

ENGI401

Credit

3

Theoretical

3

Practical

0

Ects

4
This course is designed to focus on project management framework, project integration management, project scope management, project communication management and teamwork, health & safety, engineering ethics, environmental management, risk management and sustainability, entrepreneurship and feasibility report, legal aspects in project management. This course also prepares the senior students to select their capstone design projects and form teams. The students undertake literature review for their projects, prepare feasibility report, and a written/oral presentation at the end of the term.
POWER TRANSMISSION AND DISTRIBUTION

Course code

ENRE401

Credit

4

Theoretical

4

Practical

1

Ects

7
General structure of Electric power systems. Electrical characteristics of transmission lines, transformers and generators: series impedance and capacitance of transmission lines, current – voltage relations on a transmission line for short, medium and long lengths. System modeling of synchronous machines, transformers, transmission lines and loads. Representation of power systems. Per unit analysis of power systems. Bus admittance matrix. Power flow analysis. Power circle diagram. Traveling waves, reflections. Symmetrical three – phase faults. Symmetrical components. Unsymmetrical components. Single line to ground, double line to ground and line to line faults. Basic probability methods for power system reliability evaluation. Failure Time, Failure Distribution Function and Reliability Function. Network modeling and evaluation of system reliability.
Eighth Semester
HIGH VOLTAGE TECHNIQUES

Course code

EELE456

Credit

3

Theoretical

3

Practical

1

Ects

7
Basic equations of electrostatic fields. Electric field and potential on planar electrode system. System capacity and forced. Electric field and potential on sphere electrode system and system’s capacity. Sphere electrode system’s examination for to breakdown. Electric field and potential on cylinder electrode system and system’s capacity. Cylinder electrode system’s examination for to breakdown. Parallel axis cylinder electrode systems. Maximum electric field’s approximate calculation on electrode systems. Electrode systems with multi-dielectrics. Break on the limit surface. Discharge, ionization and types. Streamer or channel breakdown theory. Corona discharge and surface discharge. Electrical breakdown of dielectric liquids and solids, insulating materials, impulse voltage and current generator circuits.
WIRELESS COMMUNICATION SYSTEMS

Course code

EELE464

Credit

3

Theoretical

3

Practical

1

Ects

5
This course is an introduction to the design, analysis, and fundamental limits of wireless transmission systems. Topics to be covered include: wireless channel and system models; fading and diversity; resource management and power control; multiple-antenna and MIMO systems; space-time codes and decoding algorithms; multiple-access techniques and multiuser detection; broadcast codes and precoding; cellular and ad-hoc network topologies; OFDM and ultrawideband systems; and architectural issues. Radio propagation effects, coverage and statistical channel modeling, time-varying channels, fading effects, various bandpass modulation schemes and detection systems, channel capacity, spread spectrum communications, diversity and combining in cellular systems.
FACULTY ELECTIVE

Course code

EFEXX2

Credit

3

Theoretical

3

Practical

0

Ects

5
FACULTY ELECTIVE

Course code

EFEXX3

Credit

3

Theoretical

3

Practical

0

Ects

5
FAKÜLTE SEÇMELİ
CAPSTONE PROJECT

Course code

ENGI402

Credit

4

Theoretical

2

Practical

4

Ects

8
This course is an interdisciplinary project based course involving engineering design, cost estimating, environmental impacts, project schedule and team work. Students are expected to work in pre-assigned team under the supervision of faculty on a predetermined project. Each team will submit a final report including drawing, specification, and cost estimate that completely describe their proposed design. Each team will make oral presentation defending their final design and project feasibility to peers and faculty members.

Optional modules

POWER SYSTEM PROTECTION

Course code

EELE416

Credit

3

Theoretical

3

Practical

0

Ects

The performance of instrument transformers, transducers, protective relays, and circuit breakers is first addressed. These devices are then integrated into coordinated protective systems for generators, transformers, transmission lines, reactors, capacitor banks, system buses, etc. Trade-offs between reliability, selectivity, speed, simplicity, and economy are emphasized. The topics of this course are : Power system unsymmetrical faults. Line to ground, line to line, double line to ground unsymmetrical faults. Current and voltage transformers. over current relay. Application of DTOC and IDTM relay for protection of a distribution feeder. Protection of three-phase feeder, directional over current relay. Differential protection. Zone of protection of the differential relay. Transformer protection. Busbar protection. Distance protection of Transmission line. Generator protection. Motor protection.
SOLAR ENERGY TECHNOLOGY

Course code

ENRE311

Credit

3

Theoretical

3

Practical

0

Ects

The aim of this course is to introduce students the fundamental technology associated with photovoltaic systems including semi-conductor physics, cells and modules. Environmental characteristics such as solar angles, sun path diagrams, solar radiation, thermal radiation and the radiation on tilted surfaces are examined. PV cell types including crystalline solar cells, c-Si, thin film and multi-junction solar cells are discussed. PV system component are introduced. Planning and sizing grid-connected and stand-alone PV systems are also involved in the course. The course aims to teach the students how to design a PV system using simulation software. Students also learns about solar thermal systems, their types and technologies, efficiency and costs.
CONVENTIONAL AND ALTERNATIVE ENERGY RESOURCES

Course code

PNGE452

Credit

3

Theoretical

3

Practical

0

Ects

0
The potential problems surrounding the use of fossil fuels, particularly in terms of climate change, contributing to global warming became a real concern for the humanity and the eco-system. Today, there is a growing shift towards environmental awareness and the the current energy-mix is coming under closer scrutiny leading to the rise of cleaner alternative energy sources. While the viability of each can be argued, they all contribute something positive when compared to fossil fuels..Lower emissions, lower fuel prices and the reduction of pollution are all advantages that the use of alternative fuels can often provide. Understanding the basic characteristics as well as pros and cons of both the conventional and alternative sources is a prerequisite for a sustainable future.
PROGRAMMING IN MATLAB FOR ENGINEERING

Course code

ENGI316

Credit

3

Theoretical

3

Practical

0

Ects

INTRODUCTION TO MICROCONTROLLER PROGRAMMING

Course code

ELE328

Credit

3

Theoretical

3

Practical

0

Ects

WIND ENERGY TECHNOLOGY

Course code

ENRE312

Credit

3

Theoretical

3

Practical

0

Ects

The main objective of the course is to present an overview of wind energy, covering all aspects from operation of a wind turbine to planning a wind farm. The course introduces the facts governing the availability and exploitation of wind power, the reasons for wind energy utilization, and, instructs the students to conduct a wind resource estimation. The fundamental concepts of wind turbine design and operation, types of wind turbines, the economic, technical and environmental factors affecting wind turbines and respective type selection are covered. Planning, installation, commissioning and economic analysis of wind farms are also discussed within the scope of this course.
ENERGY SYSTEMS-I

Course code

ENRE303

Credit

4

Theoretical

3

Practical

2

Ects

5
The aim of this course is to provide a comprehensive picture of the conventional and renewable energy systems. This course provides an introduction to engineering principles and designs for the key sustainable/renewable and conventional energy technologies. This course is structured to familiarize students with the wide range of information on sustainable energy technologies and environmental impact of energy systems. This course starts with the conventional energy resources such as coal, natural gas, petroleum and nuclear energy and is followed by mainstream renewable energy sources such as wind and solar energy. The current status of the sources systems as well as the outlook to the near future with scientific projections take significant part in the course.
ENVIRONMENTAL IMPACT ASSESSMENT

Course code

ENVE402

Credit

3

Theoretical

3

Practical

0

Ects

The objective of this course is provide knowledge on environmental impacts and environmental impact assessment. The course content includes history and basics of environmental impact assessment; framework and legal considerations for impact assessment; predictions of impacts on air, soil and water quality, noise level, and the biological environment; methods of impact analysis; public participation in the environmental impact assessment process; environmental impact assessment reports. Examples of previously used environmental impact assessment reports of various engineering projects are studied as cases studies in the lectures. The course uses lecture notes and discussions for the theoretical information and a term project practicing on how to conduct an environmental impact assessment on an imaginary project learning to use the theory in practice.
CONVENTIONAL AND ALTERNATIVE ENERGY RESOURCES

Course code

PNGE452

Credit

3

Theoretical

3

Practical

0

Ects

MANAGEMENT INFORMATION SYSTEMS

Course code

ISYE363

Credit

3

Theoretical

3

Practical

0

Ects

4
This course is for students who wanted an in-depth look at how today’s business firms use information technologies and systems to achieve corporate objectives. Information systems are one of the major tools available to business managers for achieving operational excellence, developing new products and services, improving decision making, and achieving competitive advantage. Students will find here the most up-to-date and comprehensive overview of information systems used by business firms today. When interviewing potential employees, business firms often look for new hires who know how to use information systems and technologies for achieving bottom-line business results. Regardless of whether you are in finance, management, marketing or information systems major, the knowledge and information students will find in this course will be valuable throughout their career.
SIGNAL AND IMAGE PROCESSING

Course code

CMPE326

Credit

3

Theoretical

3

Practical

1

Ects

5
Signal and Image Processing course is organised to introduce the fundamentals of digital signal and image processing techniques. The emphasis will be on analysis tools, the design of digital filters, and on the computation of the Discrete Fourier Transform (DFT). The course is designed to give all the fundamental concepts in digital image processing with emphasis in spatial filtering, frequency domain filtering, image enhancement, image restoration, compression, segmentation. Morphological image processing and the introduction to object recognition are the last topics of the course. Included in these topics, the interpolation techniques, frequency domain filtering and image averaging methods for noise removal are important topics covered. The studied methods are experimented using simulator program.
VISUAL PROGRAMMING

Course code

CMPE214

Credit

3

Theoretical

3

Practical

1

Ects

6
This course is an introductory programming course for visual programming. Event-driven, visual and structured programming concepts will be presented. Initially, the emphasis will be on fundamentals of visual programming and basic controls. Then, advanced controls, file and database management features will be presented. Programming projects will involve common problems that require data entry, display of calculated results, conditional testing, arithmetic operations, array processing, searching, sorting, reading and writing files, and operations on databases.
WORLD ENERGY POLITICS

Course code

PNGE451

Credit

3

Theoretical

3

Practical

0

Ects

IMAGE, VIDEO AND SPEECH CODING

Course code

EELE468

Credit

3

Theoretical

3

Practical

0

Ects

IMAGE, VIDEO AND SPEECH CODING
WORLD ENERGY POLITICS

Course code

PNGE451

Credit

3

Theoretical

3

Practical

0

Ects

0
Supplying energy in an uninterrupted, sustainable and affordable way is one of the most vital area that every nation should justify for it’s current and future demand. Therefore we need to increase the awareness of our young generation on this critical area. The course will focus on: •Energy resources, •Fossil fuels; their worldwide geographical distribution, why it matters •Energy Technologies, •World Energy Outlooks, •Energy prices and markets, •Major actors of the energy scene, •Main principles of a sustainable energy policy, •Energy policies and strategies of principal actors (U.S., Russian Federation, E.U., China, Turkey), •Eastern Mediterranean energy geopolitics •The concept of “energy security”. Definition, main parameters. •Electricity security
COMPUTER AIDED DATA ANALYSIS

Course code

INDE491

Credit

3

Theoretical

3

Practical

0

Ects

ENVIRONMENTAL MANAGEMENT

Course code

ENVE407

Credit

3

Theoretical

0

Practical

0

Ects

This course is an introduction to the interaction among social, political, cultural, ecological and economic factors in the field of environmental management and is centrally concerned with understanding deliberate efforts to translate environmental knowledge into action in order to achieve particular outcomes in the way landscapes, societies and/or natural ecosystems are used and managed. The course will provide a critical survey of the contemporary field of environmental policy, planning and management. It will also consider how the objectives for land and resource use are shaped, fashioned and contested in democratic and non-democratic settings. Student’s will be tought dynamics and processes that impact ecological systems and they will understand the basic components of a sustainable development framework, study concepts of sustainable development theory and practice.
SURGICAL INSTRUMENTATION

Course code

MEDE402

Credit

3

Theoretical

3

Practical

0

Ects

ARTIFICIAL INTELLIGENCE

Course code

CMPE415

Credit

3

Theoretical

3

Practical

1

Ects

7
This course teaches artificial intelligence from an intelligent systems perspective which includes the methods (tools) to build systems that can plan, learn, reason and interact intelligently with their environment. The course introduces the key components of the artificial intelligence (AI), the agent-based AI architecture, artificial intelligence techniques to solve problems for a particular domain, appropriate search methods in achieving desired goals, and knowledge representation using various techniques. The topics are as follows: intelligent agents, problem solving, uninformed search strategies, informed search strategies, knowledge representation, logical inference, propositional logic, first-order logic. The artificial intelligence methods studied are experimented using a programming language and the students are expected to complete a project related to an artificial intelligence algorithm with its software implementation.
MODELING AND SIMULATION

Course code

EELE246

Credit

3

Theoretical

3

Practical

0

Ects

FUNDAMENTALS OF COMPUTER NETWORKS

Course code

CMPE332

Credit

4

Theoretical

3

Practical

2

Ects

7
This is an introductory course in computer networks. It first introduces uses of Computer Networks in Business, Home and Mobile environment. Next discusses types of computer network range from personal area network to Internet. It then studies the implementation principles and design issues at each layer of network models. Lecture topics include: OSI and TCP/IP models, data transmission basics, data-link, application Layer protocols, guided and unguided transmission, satellite communication ( LEO, MEO, GEO) digital modulation and multiplexing, PSTN and Mobile telephone systems. Laboratory work focuses on building and studying a physical network using network devices, wired and wireless medium.
SOIL AND GRD.WATER POLLUTION

Course code

ENVE427

Credit

3

Theoretical

3

Practical

0

Ects

Overview of issues in contemporary environmental management and sustainability, both in general and in the local context. Environmental management and resource management are distinguished, as are management and governance. The course provides a broad view of relevant concepts and frameworks (for example, sustainability, the precautionary approach, systems thinking), trying these to the development of thinking about environmental governance and management. Water cycle, soil characterstics, sources of soil and groundwater contaminants, types of pollutants are mainly discussed during this course. Mass transport mechanism in vadose and saturated zones including diffusion, advection, adsorption and degradation are involed in dicussions. The remediation technologies for soil and groundwater presentations are also made to introduce students available technolgoies to overcome soil and groundwater pollution by treatment
DATA TRANSMISSION IN COMPUTER COMMUNICATIONS

Course code

CMPE331

Credit

4

Theoretical

3

Practical

2

Ects

4
The aim of this course is to provide a unified overview in the basic principles of data transmission and computer communications. The lecture emphasizes basic principles and topics of fundamental importance concerning the technology and architecture of this field, as well as providing the state of the art topics. Basic objectives includes providing a conceptual foundation for the study of data communications using the open systems interconnect (OSI) model for layered architecture and developing an understanding in basic hardware and software environments for data communications and computer networks.
COMPUTER AIDED DESIGN

Course code

MCLE475

Credit

3

Theoretical

2

Practical

3

Ects

6
This course aims to study the Integration of computers into the design cycle. Interactive computer modelling and analysis. Geometrical modelling with wire frame, surface, and solid models. Finite element modelling and analysis. Curves and surfaces and CAD/CAM data exchange. The integration of CAD, CAE and CAM systems.
EASTERN MEDITERRANEAN ENERGY GEOPOLITICS

Course code

PNGE340

Credit

3

Theoretical

3

Practical

0

Ects

ENGINEERING MANAGEMENT

Course code

INDE282

Credit

3

Theoretical

3

Practical

0

Ects

4
Review the enginnering management functions of planning, organizing, leading and controlling. Also, techniques of management, the matrix system of management, motivation, appraisal systems and prepare engineering students to become effective leaders in meeting the challenges in the new millenium. The course tries to give information in technical (an understanding of and proficiency in engineering and science); human (the ability to build a collaborative effort within a group); conceptual (the ability to apply analytical thought to the management process and to enterprise as a total system). Throughout the Engineering Management course, emphasis is placed on team-based approaches, written and oral communications skills, management of technology and continuous improvement.
ENERGY AUDITING

Course code

ENRE315

Credit

3

Theoretical

3

Practical

0

Ects

Students learn how to conduct an entire house and a small business audits that effectively targets to reduce the energy waste. The course includes the lighting, appliances, electronics, building envelope, machinery, motors, HVAC systems and water conservation. The students will also learn about alternative energy solutions that can help your client’s transition to wind and solar power. In addition calculation of Energy Use Intensity (EUI) and performing energy analysis are included in the course. The students learn to use the worksheets for calculating the performance assessment studies of energy systems.
INTRODUCTION TO BIOMETRIC SYSTEMS

Course code

CMPE466

Credit

3

Theoretical

3

Practical

0

Ects

This course will presents an introduction to the principles of operation, design, testing, and implementation of the unimodal and multimodal biometric systems. Major and emerging biometric technologies (fingerprint, face, hand, iris, hand geometry, palmprint, keystroke, handwriting, signature, gait, voice etc.) performance and issues related to the security and privacy aspects of these systems will be addressed. Students will be introduced to a variety of methods used for processing data from various biometrics (especially signature biometric modality) and to statistical methods employed to achieve acceptable performance rates (i.e. false accept rate, false reject rate, equal error rate and correct classification rates).
INTRODUCTION TO CRYPTOGRAPHY AND NETWORK SECURITY

Course code

CMPE336

Credit

3

Theoretical

3

Practical

0

Ects

Introducing the main concepts used in the modern cryptography is the main aim of the course. Mathematical concepts necessary for the modern crypt-algorithms are in the scope of the course. Classical encryption techniques are studied in the first chapters. Block ciphers and Date Encryption Standard (DES) is one of the main objectives of the course. Also, Advanced Encryption Standard (AES) algorithm is studied in details. Public key cryptography and RSA algorithm theory and implementations are the last topics for encryption models. The course ends with network security concepts and IP security standards. The students are expected to improve their skills with a project that requires the implementation of a cryptography algorithm and encryption/decryption of real data through the network.
NETWORK ANALYSIS

Course code

INDE301

Credit

3

Theoretical

3

Practical

0

Ects

SOIL AND GROUNDWATER POLLUTION

Course code

ENVE427

Credit

3

Theoretical

3

Practical

0

Ects

Overview of issues in contemporary environmental management and sustainability, both in general and in the local context. Environmental management and resource management are distinguished, as are management and governance. The course provides a broad view of relevant concepts and frameworks (for example, sustainability, the precautionary approach, systems thinking), trying these to the development of thinking about environmental governance and management. Water cycle, soil characterstics, sources of soil and groundwater contaminants, types of pollutants are mainly discussed during this course. Mass transport mechanism in vadose and saturated zones including diffusion, advection, adsorption and degradation are involed in dicussions. The remediation technologies for soil and groundwater presentations are also made to introduce students available technolgoies to overcome soil and groundwater pollution by treatment
COMPUTER SIMULATION

Course code

CMPE485

Credit

3

Theoretical

3

Practical

0

Ects

DIGITAL CONTROL SYSTEMS

Course code

EELE403

Credit

3

Theoretical

3

Practical

1

Ects

This course introduces digital control and discrete transform (z-transform). Introduction to sampled data and discrete modeling of systems. Discrete and hybrid Signal Flow Graphs (SFG)s. Students will learn designing controllers and applying compensation techniques both in s and z domains.The topics are: Review Of The Root Locus Method. Controller Design in S-Domain. Frequency Response Methods.Implementation of a Control Law on a Microprocessor.Sampling and Reconstruction.Digital Design: Introduction to Z- Transform.Open Loop and Closed Loop Discrete Time Systems.The S - Z Plane Mapping, Second Order Desired Response.Z - Plane Root Locus.Controller Design in Z - Plane, PI Controllers.Controller Design in Z - Plane, Pole-Zero Compensation and PID Controllers. Stability
MOBILE APPLICATION DEVELOPMENT

Course code

CMPE425

Credit

3

Theoretical

3

Practical

0

Ects

Introduction to Mobile Application Development, Mobile Application Platforms, Object-Oriented Programming, Java,XML and Hello Android Application, Activities, Fragments, and Intents, Getting to Know the Android User Interface, Designing Your User Interface with Views, Displaying Pictures and Menus with Views, Data Persistence, Location-Based Services, Networking- Consuming Services, Publishing Android Applications
EASTERN MEDITERRANEAN ENERGY GEOPOLITICS

Course code

PNGE340

Credit

3

Theoretical

3

Practical

0

Ects

0
Turkey is a significant energy consumer and a significant energy importing country. Energy import dependency is around 75 percent while the country has very significant indigenous but idle energy resources. Energy intensity is high and still rising offering a remarkable potential for improvement. To understand the basic characteristics, problems of Turkey’s current energy policy as well as the enormous indigenous resource potential for improvement will motivate the students to propose a more independent, sustainable and affordable energy policy. Turkey is in the center of the Eastern Mediterranean energy policy developments together with Cyprus island. Such integrated characteristic will enable the student to have a wholistic approach to solving the current dilemma around the region. However before proposing a solution, they should be better informed about the basics of the energy game and the specifics of the region.
SPECIAL TOPICS IN ENVIRONMENTAL ENGINEERING I

Course code

ENVE494

Credit

3

Theoretical

0

Practical

0

Ects

This course provides various advanced level topics will be covered on environmental engineering, according to the need of students and interest of the instructor. Air pollution sources; dry and wet deposition processes; gaseous and particulate pollutant sampling and analysis methods; effect of meteorology on air pollution; air quality standards and legislation can be one of the topic. Emerging Pollutants, which is one of the new topics for Environmental Engineering field. their occurrence and fate in treatment plants and in the environment, their ecotoxicological effects to aquatic and terrestrial organisms and approaches for their environmental risk assessment can be chosenas a topic. Environmental biotechnology can be one of the special topic to discuss biological processes to create wide variety of products.
DIGITAL SIGNAL PROCESSING

Course code

EELE420

Credit

3

Theoretical

3

Practical

0

Ects

TR Applicants

TR Students who are successful in the exams conducted by the Higher Education Council Student Selection and Placement Center (ÖSYM) and are entitled to enroll in our university in line with their preferences can complete the registration process with the necessary documents for registration from our Registration and Liaison Offices throughout Turkey or from the Registrar's Office on campus.

Click for detailed admission requirements information.

TRNC Applicants

TRNC citizens and TR citizen candidate students who have completed their entire high school education in TRNC. They are placed in undergraduate programs in line with their success in the CIU Student Placement and Scholarship Ranking Exam and the programs they prefer.

Students who are successful in the exam can register from the TRNC Marketing Office.

Applicants can directly apply online to our undergraduate programs using the application portal. Please fill in your details correctly and upload all the required documents listed on the last page of the application form.

Required documents;

  • Completed application form,
  • Higher/Secondary Certificate or equivalents (e.g. O/A’Level, WAEC/NECO),
  • Evidence of English Language competence: TOEFL (65 IBT) or IELTS (5.5). Students without these documents will take the CIU English proficiency exam on campus following arrival,
  • Scanned copy of international passport/birth certificate,
  • Fully completed and signed CIU Rules and Regulations document (which can be downloaded during the online application).

Cyprus International University provides academic scholarships for its students as an incentive for success, with most students benefiting from 50%, 75% or 100% scholarships or discounted tuition fees. Click for more information.

  Non-Scholarship 50% Scholarship
Undergraduate Programs € 5.843,00 € 3.099,00

Click for more to learn about fees in line with the Tuition Fee Calculation system.

Program Outcomes

The program outputs of Electrical and Electronic Engineering Program cover all knowledge, skills and behaviors necessary to achieve the educational objectives of the program:
PO1:   Have adequate knowledge in mathematics, science and electrical-electronic engineering; use the theoretical and practical knowledge in complex engineering problems.
PO2:   Have the ability to identify, define, formulate and solve complex electrical and electronic engineering problems; and be able to select and apply appropriate analysis and modeling methods.
PO3:   Be able to design a complex system, device or product related to electrical and electronic engineering by applying modern design methods to meet specific requirements under realistic constraints and conditions.
PO4:   Have the ability to develop, select and use necessary modern techniques and tools for the analysis and solution of complex problems encountered in electrical and electronics engineering practices; have the ability to use information technologies effectively.
PO5:   Be able to design and conduct experiments to collect data, to analyze and interpret results, to examine complex electrical - electronics engineering problems or disciplinary research topics.
PO6:   Have the ability to work effectively in disciplinary and multidisciplinary teams or individually.
PO7:   Have the ability to communicate effectively in oral and written Turkish; knowledge of at least one foreign language; have the ability to write effective reports, to understand written reports, to prepare design and production reports, to make effective presentations, and to give clear and understandable instructions.
PO8:   Be aware of the necessity of lifelong learning; have the ability to access information, to follow developments in science and technology and continuously update his/her knowledge and skills.
PO9:   Act in accordance with ethical principles, professional and ethical responsibility; learn about the standards used in engineering practices.
PO10:  Have information on business practices such as project management, risk management and change management; be aware of entrepreneurship and innovation; and learn about sustainable development.
PO11: Be informed about the effects of electrical and electronic engineering practices on health, environment and safety in the universal and social dimensions; know the legal consequences of engineering solutions.

Educational Goals

Educational goals of the undergraduate program of Electrical and Electronic Engineering, Cyprus International University, is to represent important achievements our graduates are expected to achieve shortly after graduation. Electrical and electronic engineers who graduate from this program are expected to perform one or more of the following educational goals:
EG1:  Take part in national or international projects and organizations; and cooperate with professionals from different fields.
EG2:  Develop professional and social norms to implement EEM applications that create added value.
EG3:  Keep up-to-date and compete with colleagues by attending seminars, courses, certified training programs and symposia.
EG4: Carry out graduate studies or work in research and development (R&D) units of industrial organizations.