CE
1021 – Computer-Aided Technical Drawing
This course introduces first-year
Civil Engineering students to the fundamental principles and practical skills
of computer-aided drafting (CAD) using AutoCAD. Students will become familiar
with the AutoCAD interface, coordinate systems, drawing setup, and file
management procedures. The course covers the essential drawing and editing
commands used to create accurate two-dimensional (2D) engineering drawings,
including lines, polylines, circles, arcs, rectangles, hatching, dimensioning,
text annotation, layers, object properties, and blocks. Students will also
learn techniques for modifying drawings, applying precision tools such as
object snaps and tracking, organizing drawings using layers and templates, and
preparing layouts for plotting and printing. Through hands-on exercises related
to civil engineering applications, the course aims to develop students'
technical drafting skills, spatial visualization abilities, and proficiency in
producing clear, standardized engineering drawings in accordance with
professional drafting conventions.
Credits:
3
ECTS: 3
MATH 1001 – Calculus I
Trigonometric Functions and their
basic properties, Inverse trigonometric functions, Logarithmic and exponential
functions, Limit and continuity of functions of one variable, Derivative,
Drawing function graph, Derivative applications, Optimization problems, Definite
and indefinite (Riemann) Integrals, Finding the area under the curve, Theorem,
Integral Techniques, Areas, Surfaces, Volumes, Absolute Integrals, Series.
Credits:
4
ECTS: 5
PHYS 1001 – Physics I
Vectors,
vector properties, vector components and unit vector definition, motion in one
dimension, position in one dimension, definition of velocity and velocity, instantaneous
velocity, definition of ınstantaneous velocity, acceleration, one-dimensional
constant acceleration, free falling motion of objects, obtaining kinematic
equations by calculation motion in two dimensions, position for two dimensional
motion, definition of velocity and acceleration vectors, two dimensional motion
with constant acceleration, parabolic motion, uniform circular motion,
tangential and angular acceleration, laws of motion, concept of force, Newton’s
first law, definition of mass , Newton’s second law, gravitational force and
weight, Newton’s third law, applications of newton's laws of motion, friction
force, circular motion and other applications of newton's laws of motion,
energy and energy transfer, work done by constant force, scalar product of two
vectors, work done by a variable force, potential energy of a system,
conservation of mechanical energy, change in mechanical energy for
nonconservative forces , relationship between conservative force and potential
energy, linear momentum and collisions, ımpulse and momentum, collision in one
dimension, collision in two dimensions, definition of center of mass.
Credits: 3
ECTS: 4
PHYL 1001 – Physics I Laboratory
This course covers Newtonian
mechanics, kinematics, dynamics, force, work, kinetic and potential energy,
momentum, circular and rotational motion, and gravitation.
Credits:
1
ECTS: 2
CS 1001 – Introduction to
Programming I
This
course covers basic programming concepts such as variables, data types,
selection, iteration, functions, lists, tuples, sets, dictionaries and file
I/O.
Credits: 4
ECTS: 6
CE 1013 – Earth Sciences
The
course covers the origin of the Earth, as well as the formation, distribution,
and properties of minerals and rocks. It also introduces geological phenomena
related to processes such as weathering, sedimentation, and metamorphism. The
use of geological maps, principles of engineering geology, the theory of plate
tectonics, and earthquakes constitute the core topics of the course.
Credits: 2
ECTS: 5
CE 1011 – Introduction to Civil
Engineering and Ethics
Gaining awareness of engineering
ethics means understanding the historical development of the profession and
being able to evaluate the social/environmental impacts of engineering
solutions.
Credits:
2
ECTS: 3
ENEN 1002 – English for Engineers
II
This
course is designed to help students improve their English language skills by
immersing them in the four key language components: reading, listening,
speaking and writing. The course includes learning activities that aim to
improve the students’ English-language competencies overall and more
specifically reading and writing skills which will be conducted within the
scope of the related topics.
Credits: 3
ECTS: 3
MATH 1002 – Calculus II
This course covers sequences, series,
convergence tests, the three-dimensional coordinate system, vectors, dot
product and cross product, lines, planes and quadric surfaces, vector-valued
functions and space curves, derivatives and integrals of vector-valued
functions, functions of several variables, limits and continuity, partial
derivatives, directional derivatives and the gradient vector, finding and
classifying local and absolute extrema, the method of Lagrange multipliers,
double and triple integrals and their applications, vector fields, Green's and
Stokes' theorems, curl and divergence, and line and surface integrals.
Credits:
4
ECTS: 5
MATH 1004 – Linear Algebra
This course covers systems of
linear equations, row reduction and echelon forms, matrix algebra and linear
transformations, determinants, vector spaces, subspaces, linear independence
and bases, eigenvalues, eigenvectors and diagonalization, inner product spaces
and the Gram–Schmidt orthogonalization process, and engineering applications.
Credits:
4
ECTS: 5
PHYS 1002 – Physics II
Properties of Electric Charges,
Coulomb's Law, Electric Field, Electric Field Lines, Motion of Charged
Particles in a Uniform Electric Field, Electric Flux and Gauss's Law,
Applications of Gauss's Law, Potential Difference and Electric Potential,
Electric Potential Created by Point Charges, Electric Potential Formed by
Continuous Charge Distribution , Capacitance and Dielectrics, How Capacitances
are Connected to the Circuit, Energy Stored in Charged Capacitance, Charge and
Resistance, Electric Current, Resistance, Electrical Power, Direct Current
Circuits, Series and Parallel Connection of Resistors, Kirchhoff's Law, RC
Circuits, Magnetic Field and Force, Magnetic Torque Effect of Field, Hall
Effect, Source of Magnetic Field, Biot-Savart Law, Magnetic Flux, Ampere's Law.
Credits:
3
ECTS: 4
PHYL 1002 – Physics II Laboratory
This course covers experiments on
electromagnetism and basic electrical circuits, electric fields, electric
potential, capacitance, resistance, direct current (DC) and alternating current
(AC) circuits, magnetic fields and magnetic forces, electromagnetic induction,
inductance, and electromagnetic waves.
Credits:
1
ECTS: 2
CE 1012 – Statics
The course content covers;
fundamental concepts and principles of mechanics, vectors, force systems,
equilibrium of material points (particles) and rigid bodies in plane and space.
The principles of free body diagrams used in solving engineering problems,
calculation of center of gravity and moments of inertia of geometric shapes are
examined. Additionally, the analysis of isostatic structural systems such as
truss systems, frames, and cables, and the determination of support reactions
and internal forces in these systems are detailed.
Credits:
3
ECTS: 5
CE 1022 – Surveying
The
course content covers the fundamental concepts of surveying, surveying
instruments, and field surveying methods. Leveling, distance and angle
measurements, the basic elements of a map, and the calculations and corrections
used in topographic map production are introduced. Furthermore, coordinate
systems, the concept of datum, and current data collection techniques are
evaluated from the perspective of rapid spatial data production and querying
for engineering projects.
Credits: 3
ECTS: 4
ENEN 1001 – English for Engineers I
The
course focuses on both written and spoken English, preparing students to engage
effectively in academic studies and professional environments. Through tasks
such as instructional writing, technical descriptions, interviews, and
structured academic paragraphs, students will strengthen their ability to
express ideas clearly, logically, and persuasively in English relevant to
engineering contexts.
Credits: 3
ECTS: 3
MATH 2003 – Differential Equations
This course covers the study of
first-order differential equations, the existence and uniqueness theorem,
separable, homogeneous, and exact differential equations, second- and
higher-order linear differential equations with constant coefficients, the methods
of undetermined coefficients and variation of parameters, the Euler–Cauchy
equation, the Laplace transform and its application to initial value problems,
and systems of linear differential equations.
Credits: 4
ECTS: 5
CE 2001 – Hydrology
Water
cycle, distribution of water in space and time, precipitation, evaporation,
infiltration, groundwater flow, flow records and analysis, river basins,
snowmelt, and hydrograph analysis.
Credits: 3
ECTS: 5
CE 2003 – Dynamics
This
course covers the fundamental principles of engineering dynamics, including the
kinematics and kinetics of particles and rigid bodies. Topics include
rectilinear and curvilinear motion of particles, relative and dependent motion
analysis, and the application of Newton’s laws in various coordinate systems.
The course also introduces work–energy principles, conservation of energy,
impulse–momentum methods, and impact analysis. In addition, planar kinematics
and kinetics of rigid bodies are studied, including translation, rotation, and
general plane motion. Emphasis is placed on problem solving, and the
application of appropriate analytical methods.
Credits: 3
ECTS: 5
CE 2005 – Material Science
The
course introduces fundamental concepts of materials science and the
classification of engineering materials, followed by the study of atomic
structure and bonding to understand material behavior. It then covers polymeric
and ceramic materials, along with the physical and mechanical properties of
materials and principles of strength of materials. Key concepts such as engineering
stress, strain, Young’s modulus, and stress–strain behaviour including elastic
and plastic deformation, are explored, together with yield strength, ductility,
and toughness. The course concludes with an overview of construction materials
and an introduction to material deformation and methods for detecting defects
and failure.
Credits: 3
ECTS: 5
CE 2007 – Strength of Material
The
course content first establishes a foundation with Introduction, Concepts, and
Principles; then delves into Internal Forces, States of Stress and Strain, and
Kinematics and Stress-Strain Relationships in detail. Subsequently, it moves on
to Strain Energy and Allowable Stresses, focusing on the Fundamentals of Bar
Strength, Internal Forces, and Equivalence Relationships. In light of all this
information, fundamental loading conditions such as Axial Normal Force, Shear
Force, Torsion, and Simple Bending, and their effects are examined in detail.
Credits: 3
ECTS: 5
MATH 2006 – Numerical Analysis for
Engineers
Numerical
methods for finding roots of equations, solution techniques for linear and
nonlinear systems of equations, interpolation and curve fitting, numerical
differentiation and integration, numerical solution of ordinary differential
equations, and an introduction to numerical optimization methods.
Credits: 4
ECTS: 5
CE 2002 – Structural Analysis I
History
of structural engineering; Classification of structures; Structural systems for
load transmission; Dead, live, and environmental loads; Load combinations; Structural
stability; External and internal forces; Types of supports; Static determinacy,
indeterminacy, and unstable; Calculation of reaction forces and moments;
Superposition principle; Method of joints and method of section in planar truss
systems; Axial, shear forces, and bending moment in simple beams, frames and
gerber giders; Normal, shear, and moment diagrams.
Credits: 3
ECTS: 5
CE 2004 – Construction Material
This
course provides an introduction to construction materials, aggregates, binding materials
(lime, gypsum, cement, pozzolans, admixtures), factors affecting concrete and
concrete strength, properties of fresh concrete, concrete mix design, concrete
production, properties of hardened concrete, bricks, building blocks, Portland
cement, and ferrous metals.
Credits: 3
ECTS: 5
CHM 1001 – General Chemistry
The
CHM1001 covers the fundamental aspects of general chemistry. Matter and its
properties, Uncertainty and Significant figures, Dimensional analysis, Atom and
atomic theory, Mass relationships in chemical reactions, Reactions in aqueous
solutions, Gases, Thermochemistry, Electronic structure of atoms, Periodic
table, Chemical binding, Liquids and solids, Physical properties of solutions,
Thermodynamics and Electrochemistry are the sub-titles of this course.
Credits: 3
ECTS: 5
CE 2006 – Fluid Mechanics for Civil
Engineering
This course covers the definition
and properties of fluids, shear stress and viscosity, the behavior of fluids at
rest, pressure and its measurement, the kinematics of fluid flow, the
application of the fundamental conservation laws to fluid motion, and pipe
flows and head losses.
Credits:
3
ECTS: 5
CE 2008 – Transportation
Engineering
The
course content covers the fundamental concepts of transportation engineering
and its role within civil engineering. As an introduction to transportation
systems, the course examines road transportation and the relationships between
roads and the economy, energy, and the environment. Additionally, the geometric
design of roads, as well as vertical and horizontal alignment adjustments,
constitute the core topics of the course.
Credits: 3
ECTS: 5
ENEC 2000 – Engineering Economics
This
course covers an introduction to engineering economics; interest and financial
equivalence; cash flow diagrams and cash flow series; net present value (NPV)
analysis; nominal and effective interest rates; project evaluation methods
(NPV, EAC, IRR, and payback period); sensitivity analysis; inflation; the
effects of depreciation and income tax on economic analysis; benefit–cost
analysis for public projects; and engineering economics applications using
spreadsheet software.
Credits:
3
ECTS: 3
MATH 2005 – Probability and
Statistics for Engineers
This
course covers an introduction to probability theory and set theory; random
variables and probability functions; discrete random variables and their
distributions (Binomial, Poisson, Geometric, and Hypergeometric); continuous
random variables and their distributions (Normal, Exponential, Gamma, Chi-square,
t, and F distributions); joint probability distributions; covariance and
correlation; the Central Limit Theorem and sampling distributions; descriptive
statistics and data analysis; confidence intervals and statistical inference;
and computational data analysis using Minitab.
Credits:
3
ECTS: 5
CE 3000 – Internship
The
course content of Internship I includes practical training in civil engineering
fields such as construction site activities, surveying, concrete works,
structural applications, quality control, safety procedures, project
management, and technical reporting. Students observe and participate in
engineering tasks under professional supervision to gain hands-on experience
related to planning, execution, and monitoring of civil engineering projects.
Credits: 1
ECTS: 5
CE 3001 – Reinforced Concrete I
This
course provides students with materials, analysis, and design of essential
parts of reinforced concrete structures.The course includes materials in terms
of concrete and steel. Additionally, the course conveys students concepts and application
of bending and shear in reinforced concrete structural components like beams
and columns.
Credits: 3
ECTS: 5
CE 3005 – Structural Analysis II
Deflection;
Influence Lines; Virtual Work Method; Force Method; Introduction to
Displacement Methods and Slope-Deflection Method; Moment Distribution Method
(Cross Method).
Credits: 3
ECTS: 5
CE 3007 – Soil Mechanics
This
course covers the fundamental concepts of soil mechanics, soil phase relationships,
physical and index properties of soils, unit weight concepts, water content,
void ratio, porosity, degree of saturation, and the relationships among these
properties; laboratory tests for the determination of index properties; soil
classification systems, sieve analysis, Atterberg limits, compaction principles
and the Proctor test; the concept of stress, total stress, pore water pressure,
effective stress, shear strength, laboratory tests for determining shear
strength parameters, and the determination of soil shear strength parameters by
means of the Mohr circle using test data.
Credits: 4
ECTS: 5
CE 3002 – Construction Management
The
Construction Management course covers the basic principles of planning,
organizing, scheduling, and controlling construction projects. The course
includes topics such as cost estimation, resource management, project
scheduling, quality control, safety management, contract administration, and
the application of modern management techniques in construction projects.
Credits: 3
ECTS: 5
CE 3004 – Reinforced Concrete II
This
course provides students with knowledge about the materials, analysis, and
design of the basic components of reinforced concrete structures. The course
content includes concrete, reinforcement, and steel materials. Furthermore, the
course provides students with information about bending and shear concepts and
applications in reinforced concrete structural elements such as slabs,
foundations, and shear walls.
Credits: 3
ECTS: 5
CE 3006 – Hydraulics
This course focuses on the
fundamentals of open channel flow, flow classification including uniform and
non-uniform flow, laminar and turbulent flow, and steady and unsteady flow, the
energy loss equation and the computation of uniform flow, channel design,
compound channels and optimum hydraulic sections, the computation of critical
flow, and the analysis of gradually varied and rapidly varied flow. The course
also covers methods for measuring flow characteristics using hydraulic
structures.
Credits:
3
ECTS: 5
CE 3008 – Steel Structures
History
of steel structures / Steel structural systems / Steel as a material / Design
principles of steel structures / Safety, loads and load combinations /
Connections and connection members / Riveted and bolted connections / Welded
connections / Tension members / Splice Plates / Compression Members / One-piece
compression Members / Bending Members.
Credits: 3
ECTS: 5
AREA
ELECTIVE COURSES
CE 4000 – Internship II
This
course is taken following the summer office internship. It covers the recording
of internship data and the basic principles of writing an internship report.
The course also includes reporting on the internship’s objectives, as well as
providing a summary and explanations regarding the project at the internship
site.
Credits: 1
ECTS: 5
CE 4001 – Project I
In
this course, students conduct a comprehensive engineering project individually
or in groups. The project process includes problem definition, literature
review, determination of design criteria and constraints, conducting
engineering analyses, and developing solution alternatives. The developed
solutions are evaluated within the framework of realistic constraints such as
economic, environmental, sustainability, occupational health and safety, and
feasibility. During the project process, students use modern engineering
software, develop interdisciplinary approaches, and apply project planning and
management skills. The work is documented and evaluated through technical
reports and oral presentations.
Credits: 2
ECTS: 5
CE 4002 – Project II
In
this course, students undertake a comprehensive engineering project
individually or in groups. The project process includes problem definition,
literature review, determination of design criteria and constraints,
engineering analysis, and development of alternative solutions. The developed
solutions are evaluated within realistic constraints such as economic,
environmental, sustainability, occupational health and safety, and feasibility.
During the project, students use modern engineering software, develop
interdisciplinary approaches, and apply project planning and management skills.
The work is documented and evaluated through technical reports and oral
presentations.
Credits: 6
ECTS: 10
CE 4005 – Strength of Materials II
Stresses
in beams / Beam deflection / Beam design / Buckling of columns / Torsion in
round shafts / visualizing stress and strain.
Credits: 4
ECTS: 5
CE 4006 – Coastal and Harbour
Structures
The
subject, importance, and general definitions of coastal and harbor engineering.
Sea waves. Characteristic properties and classification of waves. Wave
theories. Wave prediction methods. Variation of waves in coastal areas. Wave
energy and wave forces. Solid material transport and coastal erosion. Coastal
protection methods. Sloping breakwaters. Vertical-faced breakwaters. General
characteristics of ports. Principles of port planning. Determining unit load
and optimal port capacity. Quays and jetties.
Credits: 3
ECTS: 5
CE 4008 – Traffic Systems
This
course introduces general information about the field of traffic engineering
and its applications. The course provides an introduction to traffic
engineering. Information is provided on traffic flow parameters such as traffic
flow, traffic speed, average speed, traffic density, basic traffic flow models,
and traffic flow models. Additionally, the Poisson model and other models
related to traffic engineering are presented.
Credits: 3
ECTS: 5
CE 4009 – Concrete Technology
In
the course, advanced level concrete and concrete components are given
information. Information on binder types used in concrete, cement content and
additives, fresh concrete and solid concrete properties are provided. With this
information, it is possible to solve technical problems related to concrete
that can be encountered in business life.
Credits: 3
ECTS: 5
CE 4011 – Water Resources
Engineering
Water
resource development, river morphology, solid matter movement in rivers, river
regulation, flood control, river transportation, water resource planning,
weirs, dams, spillways, energy dissipators, water intake structures,
hydroelectric power plants, irrigation-drainage, and economic analysis of water
resources.
Credits: 3
ECTS: 5
CE 4012 – Highway Materials
This
course covers asphalt composition, production, physical properties, asphalt
mixtures, testing methods, pavement distress, maintenance and rehabilitation
practices, and sustainable asphalt technologies.
Credits: 3
ECTS: 5
CE 4013 – Computer Aided Structural
Design
This
course provides the main concept of the analysis and design of essential parts
of steel and reinforced concrete structures in computer. The course includes definition
of steel, concrete and rebar to the computer as the main materials. The course
conveys to students the concepts and application of bending and shear in
computer.
Credits: 3
ECTS: 5
CE 4014 – Matrix Structural
Analysis
Stiffness
and load matrices in bar elements. Matrix displacement method. Application of
the method to two and three-dimensional structural systems. Stiffness and load
matrices in continuous medium elements. Matrix force method. Non-linear systems
in terms of material and geometry changes. Application of the method to dynamic
analysis of structural systems.
Credits: 3
ECTS: 5
CE 4015 – Steel Projects
General
information about steel materials and steel structures is presented in the
course. Introduction to steel structures and material properties of steel,
design of steel structural project are introduced.
Credits: 3
ECTS: 5
CE 4016 – Reinforced Concrete
Project
Design
of all structural elements. Column, beam, foundation, shear wall, connection,
slab and design of the building for seismic loads.
Credits: 3
ECTS: 5
CE 4018 – Pavement Design
This
course covers pavement types, traffic loading, soil properties, pavement
materials, flexible and rigid pavement design, drainage, pavement distress, and
maintenance and rehabilitation practices.
Credits: 3
ECTS: 5
CE 4019 – Dynamics of Structures
This
course gives an introduction for the earthquake; definition of static and
dynamic loads; Single degree of freedom systems; Multi degree of freedom
systems (lumped mass systems); Free vibrations; Forced vibrations: impulse
loads, support motions (earthquake loading); Calculation of response spectrum;
Design spectrum; Modal combination of modal maximum.
Credits: 3
ECTS: 5
CE 4020 – Engineering For
Sustainable Development
This
course provides the students with a fundamental background on the concept of
sustainable development and how to consider sustainability in engineering
systems. Means for assessing sustainability will also be presented through the
use of indicators and measures.The role of engineering in achieving a more
sustainable society will be explored.
Credits: 3
ECTS: 5
CE 4021 – Intelligent
Transportation Systems
The
course covers the historical development of Intelligent Transportation Systems,
their relationship with other areas of transportation, and current ITS
applications. It also includes the evaluation of selected case studies, along
with discussions on the practical challenges and impacts associated with ITS
implementations.
Credits: 3
ECTS: 5
CE 4022 – Environmental Engineering
The
course introduces the main environmental issues and potential solutions,
emphasizing water quality, water supply, and wastewater treatment. Some
examples of the applications of artificial intelligence methods to solve
various environmental problems are also introduced. The students complete a
self-selected research topic in the environmental engineering field and provide
a presentation.
Credits: 3
ECTS: 5
CE 4023 – Engineering Aesthetics
This
course provides the students with the basic knowledge on the intersection
between engineering and aesthetics to enhance the functionality of engineering
project and their user satisfaction. It explains the general principles of
visual design and their applications in engineerng structures and construction.
This is in addition to the principles of assessment of user experience and
social perception to achieve the satisfactory aesthetics levels of engineering
projects. it includes the practical applications and their manifestations in
national and international case studies.
Credits: 3
ECTS: 5
CE 4024 – Urban Planning
This
course introduces the principles, concepts, and methodologies involved in city
planning. It discusses the relationship between the management of urban
development, infrastructure design, transportation planning, environmental
sustainability, and the social aspects of city planning and its engineering
outcomes.
Credits: 3
ECTS: 5
CE 4027 – Introduction to
Environmental Geotechnics
Introduction
to environmental geotechnics and basic concepts, Properties of contaminated
soils and types of contaminants, Contaminant transport mechanisms (advection,
diffusion, dispersion), Permeability and seepage control, Waste containment
systems (landfills), Geosynthetics and barrier systems, Ground improvement and
stabilization techniques, Biological and chemical remediation methods, Environmental
risk assessment, Relevant laboratory tests and field applications.
Credits: 3
ECTS: 5
CE 4037 – Geotechnical Earthquake
Engineering
Introduction
to earthquake engineering and basic concepts, Seismic waves and characteristics
of ground motion, Dynamic properties of soils (shear modulus, damping), One-dimensional
site response analysis, Soil amplification and local site effects, Mechanism
and evaluation of liquefaction, Effective stress and pore water pressure under
seismic loading, Slope stability under earthquake conditions, Seismic behavior
of foundations, Soil–structure interaction, Principles of seismic geotechnical
design.
Credits: 3
ECTS: 5
CE 4038 – Experimental Principles
in Geotechnical Engineering
Introduction
to experimental methods in geotechnical engineering, Sampling techniques
(disturbed / undisturbed), Soil classification tests (sieve analysis, Atterberg
limits), Physical property tests (unit weight, water content, etc.), Compaction
tests (Proctor), Shear strength tests (direct shear, triaxial), Consolidation
and settlement tests, Permeability tests, Field tests (SPT, CPT, etc.), Data
analysis and interpretation, Experimental errors and data reliability.
Credits: 3
ECTS: 5
CE 4040 – Soil Improvement Methods
Introduction to ground improvement
and its necessity, Modification of soil behavior through improvement, Mechanical
methods (compaction, vibro techniques), Drainage and consolidation acceleration
methods, Stone columns and deep mixing, Jet grouting and grouting techniques, Ground
improvement with geosynthetics, Chemical stabilization (lime, cement, etc.), Liquefaction
mitigation techniques, Slope stabilization and foundation improvement, Field
applications and performance evaluation.
Credits:
3
ECTS: 5
