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FIRST YEAR
FIRST SEMESTER
PHYS 105 GENERAL PHYSICS I
Credit (Theoretical-Application-Laboratory): (3-0-2) 4
Offered Semester: Fall Semesters
Course Objective
The goal of this course is to provide a calculus-based physics course to help students pursuing advanced studies in engineering develop conceptual understanding of physical principles, the ability to reason, and gain skills for problem solving.
Course Content
Vectors; kinematics; particle dynamics work and energy; conservation of energy; system of particles; collisions; rotational motion; oscillations.
Learning Outcomes
1) Understand how phycists approach and solve problems in mechanics, 2) Apply those methods to solve problems of mechanics, 3) Use inductive reasoning and calculus level mathematics to solve problems in mechanics, 4) Engage in independent and collaborative learning, 5) Identify, find, and use the tools of information science as it relates to mechanics, 6) Critically evaluate both source and content of scientific information.
CHEM 107 GENERAL CHEMISTRY
Credit (Theoretical- Application-Laboratory): (3-0-2) 4
Offered Semester: Fall and Spring Semesters.
Course Objective
Develop an understanding of atomic and molecular structure of matter, periodic properties of elements, the interaction between the particles in liquid and solid phase, solutions, chemical equilibrium, acids and bases, solubility, and relation between chemical reactions and work.
Course Content
(One term course for students of CE) Introduction to atomic and electronic structure, chemical bonding, molecular structure and bonding theories, properties of liquids, solids and solutions, chemical equilibrium, kinetics, thermodynamics, metal complexes, organic compounds and nuclear chemistry.
Learning Outcomes
At the end of this course, students will have a general understanding of the structure of matter and its interaction.
MATH 119 CALCULUS WITH ANALYTIC GEOMETRY
Credit (Theoretical- Application-Laboratory): (4-0-2) 5
Offered Semester: Fall Semesters.
Course Objective
The sequence Math 119-120 is the Standard complete introduction to the concepts and methods of calculus. It is taken by all engineering students. The emphasis is on concepts, solving problems, theory and proofs. All sections are given a uniform midterm and a final exam. Students will develop their reading, writing and questioning skills in Mathematics.
Course Content
Functions, limits, continuity and derivatives. Applications. Extreme values, the Mean value Theorem and its aplications. Graphing. The definite integral. Area and volume as integrals. The indefinite integral. Transedental functions and their derivatives. L`Hopital`s rule. Techniques of integration. Improper integrals. Applications
CE 101 CIVIL ENGINEERING DRAWING
Credit (Theoretical- Application-Laboratory): (3-0-2) 3
Offered Semester: Fall and Spring Semesters.
Course Objective
The objectives of this course are to enable the students to understand the general concepts of engineering drawing and general principles on a CAD (particularly AUTOCAD provided bu AUTODESK)and extend this knowledge to general use of CADs.
Course Content
An introductory course to provide orientation to the language of engineering graphics and interaction with integrated computer aided drafting. General Cad Terminology and CAD User Interface and Drawing Editor. Technical Drawing Concepts: Orthographic drawing, isometric and oblique projections and sectioning, basic dimensioning techniques, plotting and printing techniques. Introduction to model space and paper space concepts. Civil Engineering applications.
Learning Outcomes
This course is taught in the 1st semester and mainly aims to increase the students' ability to use IT, to carry out teamwork and to communicate effectively and to enhance the students' sketching/drawing skills. Following items are the outcomes of this course: Two-dimensional orthographic projection. Principal and auxiliary views of solid objects. Sectional views of solid objects. Dimensioning rules and preliminary annotation. Freehand sketching. Computer-Aided-Design.
ENG 101 DEVELOPMENT OF READING AND WRITING SKILLS I
Credit (Theoretical- Application-Laboratory): (4-0-0) 4
Offered Semester: Fall Semesters
Course Objective
The overall aim of this course is to develop students' all four skills (reading,writing, speaking and listening) in Academic English with a specific emphasis on reading. The specific objectives are to ensure that students 1. use correct, appropriate language structures, vocabulary and discourse markers 2. learn, internalize, accept and carry out the stages in a process writing approach, while writing paragraphs and/and essays 3. understand key ideas in a text 4. recognize the relationship between ideas in a text 5. read extensively 6. recognize the attitude of the writer 7. read with reasonable fluency 8. deduce the meaning in sentences and parts of a text 9. evaluate, synthesize and use information from (multiple) texts 10. identify main idea(s) in spoken discourse 11. listen for a specific purpose to choose relevant information 12. initiate and maintain discussions 13. develop their critical thinking skills 14. become autonomous learners and individuals
Course Content
The course reinforces academic reading skills (finding the main idea, skimming, scanning, inferring information, guessing vocabulary from context, etc.) through reading selections on a variety of topics. It also aims at developing critical thinking, which enables students to respond to the ideas in a well organized written format. Other reading related writing skills such as paraphrasing and summarizing are also dealt with.
Learning Outcomes
By the end of this course, students 1. will have read numerous texts on several themes in and out of class 2. will have written several paragraphs on the texts that they have read and two essays, namely a reflective essay and a reaction-response essay 3. will have learned how to apply reading strategies, such as skimming, scanning, predicting, inferring, finding the main idea(s), finding the writer's attitude and so on 4. will have learned some study habits, such as summarising, paraphrasing, note-taking 5. will have practiced listening and speaking through various activities.
INF 100 INTRODUCTION TO INFORMATION TECHNOLOGIES AND APPLICATIONS NC
Offered Semester: Fall Semesters
Course Objective
To introduce all students to the basic information technology concepts and applications in their preparatory school / freshman year, preparing them to use these skills during their undergraduate studies in their respective disciplines, as well as professional lives.
SECOND SEMESTER
PHYS 106 GENERAL PHYSICS II
Credit (Theoretical- Application-Laboratory): (3-0-2) 4
Offered Semester: Spring Semesters.
Course Objective
The goal of this course is to provide a calculus based physics course to help students develop conceptual understanding of physical principles, the ability to reason, and gain skills for problem solving.
Course Content
Electric charge; electric field; Gauss` law, electric potential; capacitance; current and resistance; circuits; magnetic field; Ampere`s law; Faraday`s law of induction; electro-magnetic oscillations; alternating currents.
Learning Outcomes
1) Understand how phycists approach and solve problems in electricity and magnetism; 2) Apply those methods to solve problems of electricity and magnetism; 3) Use inductive reasoning and calculus level mathematics to solve problems in electricity and magnetism; 4) Engage in independent and collaborative learning; 5) Identify, find, and use the tools of information science as it relates to electricity and magnetism; 6) Critically evaluate both source and content of scientific information.
MATH 120 CALCULUS FOR FUNCTIONS OF SEVERAL VARIABLES
Credit (Theoretical- Application-Laboratory): (4-0-2) 5
Offered Semester: Fall Semesters.
MATH 119 should be completed before taking MATH 120 CALCULUS FOR FUNCTIONS OF SEVERAL VARIABLES
Course Objective
The sequence Math 119-120 is the Standard complete introduction to the concepts and methods of calculus. It is taken by all engineering students. The emphasis is on concepts, solving problems, theory and proofs. All sections are given a uniform midterm and a final exam. Students will develop their reading, writing and questioning skills in Mathematics.
Course Content
Sequences, infinite series, power series, Taylor series. Vectors, lines and planes in space. Functions of several variables: Limit, continuity, partial derivatives, the chain rule, directional derivatives, tangent plane approximation and differentials extreme values, Lagrange multipliers. Double integrals with applications. The line integral.
CE 102 INTRODUCTION TO CIVIL ENGINEERING
Offered Semester: Spring Semesters.
Course Objective
To introduce the civil engineering profession and civil engineering department to first year students.
Course Content
An orientation course to provide counsel to the students on the major areas of Civil Engineering including information on typical activity of civil engineers, integrated course sequences and content, and an introduction of the faculty. Professional engineering practice. Oral and written engineering communication.
Learning Outcomes
The students will have a better opinion of what civil engineering is and where they will get a formal civil engineering education.
GEOE 104 GEOLOGY FOR CIVIL ENGINEERING
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall and Spring Semesters.
Course Objective
The objectives of this course are 1) To provide students the basic knowledge of the layers of the earth, rocks and minerals, external and internal earth processes. 2) To introduce students the techniques used in geological studies. 3) To develop students ability to visualize three dimensional nature of the geological units. 4) To explain students the significance of the geological materials and processes in civil engineering applications. 5) To teach students the contemporary issues related to geological engineering.
Course Content
Structure of the Earth. Geological cycles, minerals and rocks. External processes on land and in the sea. Internal processes, including deformation of rocks and earthquakes. Topics of interest to Civil Engineering students.
Learning Outcomes
At the end of the course, students are expected to determine the basic types of earth materials, earth structures and earth processes and expected to link this information to Civil Engineering applications.
INF 230 INTRODUCTION TO C PROGRAMMING
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall and Spring Semesters.
Course Content
Introduction. Constants, variables, expressions, statements. Selective structures. Repetitive structures and arrays. Functions. Pointers. Multi-dimensional arrays. (Offerd to non-5710 students only.)
ENG 102 DEVELOPMENT OF READING AND WRITING SKILLS II
Credit (Theoretical- Application-Laboratory): (4-0-0) 4
Offered Semester: Fall Semesters.
Course Objective
The overall aim is to develop students all four skills (writing, reading, speaking and listening) in Academic English. The specific objectives of the course are for students to learn ho
Course Content
The course reinforces academic writing skills. In this course students write different types of essays based on the ideas they are exposed to in the reading selections. The emphasis is on the writing process in which students go through many stages from brainstorming and outlining to producing a complete documented piece of writing.
SECOND YEAR
THIRD TERM
MATH 219 INTRODUCTION TO DIFFERENTIAL EQUATIONS
Credit (Theoretical- Application-Laboratory): (4-0-0) 4
Offered Semester: Fall Semesters.
MATH 120 should be completed before taking MATH 219 INTRODUCTION TO DIFFERENTIAL EQUATIONS
Course Objective
The objectives of this course are to introduce the student with the concept of a differential equation, basic techniques for solving certain classes of differential equations, especially those which are linear, and making connections between the qualitative features of the equation and the solutions. Connections to problems from the physical world are emphasized. As well as ordinary differential equations, the course aims to introduce the students to certain partial differential equations.
Course Content
First order equations and various applications. Higher order linear differential equations. Power series solutions: The Laplace transform: solution of initial value problems. Systems of linear differential equations: Introduction Partial Differential Equations.
Learning Outcomes
At the end of the course the students are expected to: 1) Understand the concept of a differential equation, the procedure of writing one when a system is described, and to interpret the solutions correctly, 2) Be able to sketch direction fields and read off the qualitative features of the solutions from this, as well as to be able to use simple numeric solvers and interpret the solutions, 3) Understand the theory of linear differential equations and systems in detail, to be able to use the various solution methods presented comfortably (undetermined coefficients, reduction of order, variation of parameters, annihilation, Laplace transform, series solutions, eigenvalues-eigenvectors), and to understand the connections to the concepts from linear algebra, in particular to be able to carry out simple proofs, 4) Be able to solve the heat, wave and Laplace equations using Fourier series expansions when these partial differential equations have relatively simple boundary conditions, 5) Be able to use complex numbers and linear algebra in the process of solving differential equations in an effective manner.
ATB 193 PRINCIPLES OF KEMAL ATATURK I NC
CE 202 SURVEYING
Credit (Theoretical- Application-Laboratory): (1-0-4) 3
Offered Semester: Fall Semesters.
Course Objective
Civil engineers perform their construction and design activities on and for the surface of earth. They will need information (in form of maps, plans, digital terrain models, geographic information systems etc.) about the location of the civil work. They will select the location of project and design the structure accordingly. The project will be laid out and constructed by methods of surveying. The cost estimation, quantity surveying and work planning will require geometric information and methods of surveying. The students of civil engineering should be able; to use survey instrument, maps, plans, and computer programs; to carry out office and field operations in order to determine geometry of natural and artificial features on the surface of the earth in order to make maps and plans; to prepare the data for lay out civil engineering structures in construction site; to communicate and use services of professionals in the field of surveying.
Course Content
Introduction. Distance measurement. Taping. Angle measurement. Errors. Direct, indirect and conditional adjustment of observations. Differential leveling. Rise and fall. Height of collimation method. Traverse surveys. Azimuth and coordinate computations. Area computations. Stadia survey. Trigonometric leveling. Contour lines. Curve layout. Remote sensing and photogrammetry.
Learning Outcomes
Geographic and interdisciplinary nature of surveying work and importance of effective communication with professionals in other fields are emphasised. Concept based teaching and assessment of the course help students to improve their communication skills. An ability to apply knowledge of mathematics, science, and engineering, an ability to design and conduct experiments, as well as to analyse and interpret data, and an ability to communicate effectively.
CE 221 ENGINEERING MECHANICS I
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall Semesters.
MATH 119 should be completed before taking CE 221 ENGINEERING MECHANICS I.
Course Objective
Civil engineering (like many others) is based on mechanics. Various branches of mechanics are treated in three and four basic courses in the civil engineering curriculum. The major objectives of this course are: 1) To establish the concept of equilibrium , 2) To introduce the concept of structural analysis with reference to statically determinate trusses and beams, 3) To introduce properties of surfaces used in mechanics.
Course Content
Introduction to rigid body mechanics. Equivalent force systems: Concepts of moment, couple, resultant. Equilibrium: Free-body diagram; equations of equilibrium. Structural analysis: Trusses; beams. Shear force and bending moment diagrams by method of sections and by method of integration. Properties of surfaces: Area moment and centroid; moments and product of inertia; principal directions.
Learning Outcomes
An ability to identify, formulate and solve engineering problems, an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice, and an ability to apply knowledge of mathematics, science, and engineering.
CE 231 ENGINEERING ECONOMY
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall Semesters.
Course Objective
To introduce quantity measurement methods according to the Procedure of the Ministry of Public Works and Resettlement. To discuss the time value of money and methods of comparing alternatives from economic point of view (rate-of return, PW, AE approaches). To introduce depreciation, replacement, cost-benefit analysis principles. To enable students to make suitable decisions in their professional life when they have to make a decision on an economical basis.
Course Content
Introduction to engineering economy. Interest and money-time relationship. Depreciation, valuation depletion. Basic methods for making economy studies. Risk-decision analysis. Selection between alternatives and the replacement problem. Applications related to various constructions projects. Quantity measurement and cost estimating of a building project.
Learning Outcomes
The broad education necessary to understand the impact of engineering solutions in a global and societal context., an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice, and a recognition of the need for and an ability to engage in life-long learning
Course Objective
s are significantly related with the following ABET outcomes: e. An ability to identify, formulate and solve engineering problems. f. An understanding of professional and ethical responsibility. h. The broad education necessary to understand the impact of engineering solutions in a global and societal context. k. An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.
CE 241 MATERIALS SCIENCE
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall and Spring Semesters.
Course Objective
All engineers are concerned with the structural safety, serviceability and the economics of the constructions with which they are involved. The successful approach to the problem can only be established through a sound knowledge of computational methods of engineering and a thorough understanding of the properties and behavior of engineering materials. Without a proper knowledge of materials neither the structural safety and serviceability nor the economics can be achieved in engineering projects. The purpose of this course is to emphasize the basic principles necessary for an understanding of the fundamental nature and properties of engineering materials and to make clear the significance of these principles in engineering practice. The objective has been to present a unified treatment of a variety of materials, stressing the fundamentals which provide a common basis for explaining the behavior of the varied materials. The organization of the course material is such that, first, the elements of the atomic and electronic structure of matter is introduced and the structure types of solids are explained. Then the physicochemical aspects of the colloidal material used in industrial practice is covered. A sequence proceeds from atomic structures to coarser structures, from the simple to the more complex. Such a sequence from atoms to crystals, to phases, to microstructures and to macrostructures is followed because the grosser structures and properties depend on the finer structural characteristics. Considering the importance of the mechanical behavior of materials and the limitation of the course period, emphasis is given to the phenomena associated with the mechanical behavior of the materials and their structural characteristics. Elasticity, plasticity and flow phenomena are explained by reference to the main types of engineering materials and a discussion of the strength and other related properties of the materials follows. Finally the effect of radiation damage on the mechanical properties of materials is briefly discussed. The course is already taught to the civil engineering and environmental engineering students with the contents written in the "learn to how
syllabus" section. It is believed that
Course Content
Engineering requirements of materials; the structure of matter; atomic arrangements, structural imperfections, atom movements. Mechanical properties. Concepts of force, stress, deformation and strain; elasticity; elastic and plastic behavior; viscosity; rheological models. Creep, relaxion, brittleness, ductility, hardness, fatigue, toughness, resilience, and damping characteristics of materials.
Learning Outcomes
An ability to apply knowledge of mathematics, science, and engineering, an ability to identify, formulate and solve engineering problems, and an understanding of professional and ethical responsibility.
NON-TECHNICAL ELECTIVE NC
FOURTH SEMESTER
ATB 194 PRINCIPLES OF KEMAL ATATURK II NC
MATH 202 MATHEMATICS FOR ENGINEERS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall and Spring Semesters.
MATH 120 should be completed before taking MATH 202 MATHEMATICS FOR ENGINEERS Course Objective
This course is mainly designed to give sophomore engineering studrnts fundamental concepts of vector spaces , vector calculus and linear algebra relevant to their fields. Course Content
Vector spaces, matrices, systems of linear equations, linear transformations, change of basis, eigenvalue problems, quadratic forms and diagonalization. Vector calculus, line, surface, and volume integrals. Gradient, divergence, curl. Green, Gauss and Stokes´ theorems. Complex Numbers. Learning Outcomes
At the end of the course ,students are expected to be able to use vector analysis and linear algebra to formulate analytical and numerical modelling of various engineering problems.Some examples are: 1)Structural mechanics and finite element method require a good knowledge of matrix algebra. 2)Eigenvalue analysis are needed in free vibration and stability analysis of structural systems,in determining principal stresses,in finding principal directions of the cross section of a beam. 3)Integral theorems(Green,Gauss,Stokes' theorems) are being used in fluid and solid mechanics. 4)Solution of system of linear equations is encountered in all of the branches of engineering analysis.etc.
CE 222 ENGINEERING MECHANICS II
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Spring Semesters.
CE 221 should be completed before taking CE 222 ENGINEERING MECHANICS II.
Course Objective
The course provides engineering students firm foundations in the study of motion, forces that cause motion and their relationships for rigid bodies using Newton's Laws, energy and momentum principles and introduces systems governed by ordinary differential equations. Course Content
Kinematics of particles and rigid bodies: absolute motion, relative motion. Kinetics of particles: equations of motion, work-energy and impulse-momentum. Systems of particles. Kinetics of rigid bodies: Euler`s equation, plane motion of rigid bodies, kinetic energy of rigid bodies. Introduction to the dynamics of vibrating systems. Learning Outcomes
The students fullfilling the course requirements satisfactorily are expected to -Determine the kinematic relationship for two dimensional (2-D)motion of system of particles and rigid bodies. -Apply Newton's equations to 2-D problems to determine forces resulting from a specified motion. -Analyze 2-D motion of particles and rigid bodies using energy and momentum principles. -To study and discuss one-degree-of-freedom undamped free and forced vibrations of rigid bodies using Newton's equations of motion and energy methods.
CE 224 MECHANICS OF MATERIALS
Credit (Theoretical- Application-Laboratory): (3-0-2) 4
Offered Semester: Spring Semesters.
CE 221 should be completed before taking
CE 224 MECHANICS OF MATERIALS .
Course Objective
The objective of this course is to teach students the fundamentals related with the mechanics of deformable bodies.
Course Content
Simple stress and strain. Equilibrium, compatibility and constitutive relations. State of stress and state of strain with emphasis on two dimensional problems. Bending and shear stresses. Deflection of beams. Torsion of circular shafts. Combined stresses. Buckling of columns.
Learning Outcomes
At the end of this course, the learner is expected to be able to perform calculations of stress and strain on simple structural members. Be able to solve simple problems related with indeterminate structures.
CE 244 MATERIALS OF CONSTRUCTION
Credit (Theoretical- Application-Laboratory): (3-0-2) 4
Offered Semester: Spring Semesters.
Course Content
Production, types, uses in construction, properties and related tests for the following materials are covered: ferrous metal, bituminous materials, clay products, timber, building stones, mineral aggregates, lime, gypsum, hydraulic cements and concrete. Constituents, theories of mix design, principal steps in production, physical and mechanical properties of concrete.
ENG 211 ACADEMIC ORAL PRESENTATION SKILLS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall Semesters.
ENG 101- ENG 102 should be completed before taking ENG 211 ACADEMIC ORAL PRESENTATION SKILLS
Course Objective
choosing appropriate presentation topics reading extensively to gather relevant data sorting through information expanding vocab and actively using topical words preparing and using visual aids adjusting language to spoken discourse using body lang effectively expressing and supporting opinions asking and answering questions listening actively and responsively learning debating procedure learning discussion management techniques carrying out field research and team work Course Content
The course aims at developing oral presentation skills. To this end, students are engaged in classroom discussions following advanced reading texts on a variety of topics. In the course students study effective presentation techniques, do extensive reading and carry out research to give presentations of different functions with mature content and topical vocabulary. Learning Outcomes
By the end of the semester,sts will have performed 4 presentations; namely, informative speech, persuasive speech, audio-visual presentation and final project presentation.
NON-TECHNICAL ELECTIVE NC
THIRD YEAR
FIFTH SEMESTER
STA 303 STATISTICAL METHODS FOR ENGINEERS Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall and Spring Semesters.
MATH 119 should be completed before taking STA 303 STATISTICAL METHODS FOR ENGINEERS.
Course Objective
This course is mainly designed to give undergraduates in engineering relevance and practical significance of statistical concepts in their fields through essential mathematical principles and applications.
Course Content
Descriptive statistics, histograms, central tendency, dispersion and correlation measures. Basic probability concepts, random variables, probability density and mass function. Hypothesis testing, confidence intervals. Law of large numbers and central limit theorem. Regression analysis. Applications in engineering.
Learning Outcomes
1.to understand the basic concepts of Probability and statisticals and comprehend its importance in different disciplines of Engineering. 2.To be able to organize data and use the tools of descriptive statistics like histograms, frequency diagrams, etc, to show the distribution and skewness of data. 3. To be able to differentiate the different measures of central location and variability for a data with excel applications 4. To understand basic probability concepts like possibilities and probability, axioms of probability, conditional probability, statistical independence, theorem of total probability and Bayes theorem 5. To comprehend the concept of random variables and distributions, 6. To find the probability mass density and cumulative distribution functions descriptors of a random variable. 7. To understand and compare some useful distributions, uniform, binomial, negative binomial, Poisson, geometric, hypergeometric, normal, lognormal and exponential. 8. To analyze the joint mass density and cumulative distributions, marginal densities of multivariate distributions. 9. To know the concept of Independence, covariance, correlation, conditional mean and variance for joint distributions 10.To solve the problems related to functions of random variables, sum and difference of normal variates, mean and variance of a general function 11. To describe Statistical inferences, estimation of parameters, properties of estimators, 12. To understand the necessity of central limit theorem 13. To make interval estimation for the mean, 14. To comprehend how to use hypothesis testing for the mean and testing validity of assumed distribution,, 15. To learn alternative nonparametric methods: Wilcoxon signed Rank Test 16. To develop least squares estimation, lack of fit for regression and correlation analyses of data 17. To learn residual analysis and residual plots) 18. To dseing One way Analysis of Variance (ANOVA) for data. MATH 305 COMPUTING METHODS IN ENGINEERING
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall and Spring Semesters.
MATH 119 - INF 230 should be completed before taking MATH 305 COMPUTING METHODS IN ENGINEERING
Course Content
Numerical solution of linear and nonlinear systems of equations. Interpolating polynomials. Numerical differentiation and integration. Numerical solution of ordinary differential equations.
CE 300 SUMMER PRACTICE I NC
Offered Semester: Fall Semesters
Course Objective
This course is intended to provide students an exposure to the practice of engineering in real world.
Course Content
Subjects that are acceptable for summer practice: Surveying, time-keeping, checking and testing construction materials, assisting resident engineers. Preparing quantity and cost estimates, unit price estimates, civil engineering drawings and graphs. Use of computational machines, taking part in construction work. The department may organize a compulsory, collective Summer Practice Program in place of the above. (30 working days).
Learning Outcomes
It provides the students with valuable on-the-job practical experience which enhances the educational experience received in the undergraduate CE program. CE 323 INTRODUCTION TO STRUCTURAL MECHANICS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall Semesters
CE 224 should be completed before taking CE 323 INTRODUCTION TO STRUCTURAL MECHANICS.
Course Objective
The objectives of this course are to broaden the knowledge of the students in strength of materials by introducing special topics like unsymmetrical bending and shear centre, and also to master the fundamental concepts and principles in structural analysis. Hence the student will be capable of using these tools in intermediate and advanced structural analysis courses. The emphasis is attributed to work and energy principles, by applying them to the solution of numerous examples. Force method of structural analysis also constitutes a major part in the course.
Course Content
Unsymmetrical bending, shear center. Definition, classification, idealization and modeling of structures. Analysis of statically determinate structures, including beams, frames and arches. Analysis of cables. Work and energy principles and their application in deformation analysis of structures. Force method of structural analysis.
Learning Outcomes
At the end of this course, the students are expected to: a) integrate the previous strength of materials background with the advanced topics presented in this course, b) be able to identify the general characteristics of simple structures and idealize them by selecting appropriate analytical models, c) understand how an engineering structure (truss, frame, arch, cable, etc.) behaves when subjected to different types of effects (external load, thermal changes, settlement, etc.), d) solve for unknown forces and displacements in determinate and indeterminate (to few degrees) structural systems by using the methods and principles presented throughout the course. CE 353 PRINCIPLES OF TRANSPORTATION AND TRAFFIC ENGINEERING
Credit (Theoretical- Application-Laboratory): (3-0-2) 4
Offered Semester: Fall Semesters
Course Objective
The aim of the course is to get acquainted all civil engineering students with geometric elements of highways to be used in highway design first, and then provide the basic determinants of traffic system to alleviate traffic problems.
Course Content
Introduction to transportation systems. Vehicles, network and terminals as components of transportation systems engineering. Design of transportation facilities emphasizing land transportation. Operations planning of transportation systems and traffic engineering. Models of traffic flow. Traffic analysis at intersections. Basic definitions and computations of level of service. Planning and management techniques.
Learning Outcomes
The students would be capable to carry out a highway design project starting with route location and continuing with all phases of the design by considering those geometric elements conformal with the economical mass distribution, and would be able to search solutions to traffic problems with analytical methods of traffic engineering taught at an introductory level.
CE 363 SOIL MECHANICS
Credit (Theoretical- Application-Laboratory): (3-0-2) 4
Offered Semester: Fall Semesters
Course Objective
To introduce the students to the fundamental principles of soil mechanics and behavior of engineering soils.
Course Content
Introduction: engineering problems involving soils. Basic characteristics of soils, classification and compaction of soils. Principle of effective stress. Permeability and flow of water (seepage) in soils. Shear strength of soils. Slope stability. Lateral earth pressure theories. Consolidation theory.
Learning Outcomes
By the end of the course, the students will be able to *** perform the tests and operations needed to classify soils; *** perform the necessry tests, and evaluate seepage losses through and beneath dams; *** perform the necessary tests, and analyse the stability of slopes; *** Perform the necessary tests, and apply simple calculations for the estimation of settlements beneath uniformly loaded soil layers; *** Perform the necessary tests, and estimate the earth pressure on earth rataining structures.
CE 371 FLUID MECHANICS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall Semesters
CE 221 should be completed before taking CE 371 FLUID MECHANICS
Course Objective
The objective is to introduce the students the fundamental principles of fluid mechanics and to form a background for the courses in the field of hydraulics.
Course Content
Definitions, physical properties. Hydrostatics, forces on plane and curved surfaces, buoyancy, hydrostatics in moving and rotating containers. Lagrangian and Eulerian descriptions, derivatives, rate of deformation, flowlines. System and control volume approach, Reynolds transport theorem, principles of conservation of mass, momentum and energy, Bernoulli equation. Dimensional analysis, Buckingham pi theorem, similitude.
Learning Outcomes
To increase the ability to apply knowledge of mathematics, science and engineering, to identify, formulate and solve engineering problems, and an ability to use the techniques, skills and modern engineering tools necessary for engineering practice.
TÖB 101 TURKISH I NC
SIXTH SEMESTER
CE 332 CONSTRUCTION ENGINEERING AND MANAGEMENT Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Spring Semesters
Course Objective
To introduce the students a general picture of the construction industry together with the contemporary management topics. To provide the students with basic information on principles of construction project management and increase their awareness on major tasks of a construction manager. To present some of the techniques and methods used during the management of a construction project such as network analysis, cost estimating techniques, hourly output estimation of equipment etc. To help the students to understand the roles and responsibilities of all parties involved in a construction project, basic phases of a construction project and the way different parties work together to increase performance in a construction project. To give them brief information about the Turkish construction industry and Turkish practice giving reference to current rules and regulations (eg. Health and Safety Regulations for Public Works). To increase the awareness of students on the issues of quality, health and safety, professional responsibility, engineering ethics etc. and the environmental and economic impacts of the construction industry.
Course Content
Profile of the construction sector; company and site organization and types of contracts. Construction projects; estimating, tendering, planning and execution. Professional responsibility and engineering ethics. Productivity, quality, health and safety issues. Construction equipment; selection criteria, hourly cost determination and output analysis of excavators.
Learning Outcomes
The student will be furnished with the basic principles of construction project management,project delivery systems and contract strategy, cost estimating and tendering, construction planning, quality management, health and safety and construction equipments. This course is designed to give an overall introductory information in the field of construction management at the undergraduate level.
CE 366 FOUNDATION ENGINEERING I
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Spring Semesters
CE 363 should be completed before taking CE 366 FOUNDATION ENGINEERING I.
Course Objective
The course is aimed at introducing the basic principles of foundation design of civil engineering structures to civil engineering students. Some theoretical background information is also given in addition to the fundamental concepts explained in CE 363 Soil Mechanics.
Course Content
Site investigations, retaining structures, excavations, dewatering, shallow foundation design, bearing capacity, settlement, stress distribution in soils, initial settlement, consolidation settlement, permissible settlement, deep foundation design, bearing capacity, settlement, types of piles, ground improvement.
Learning Outcomes
To apply knowledge of mechanics; to gain an ability of engineering design and solving engineering problems; understanding of professional responsibility in the field of engineering; to gain an ability of using the techniques and skills necessary for engineering practice
CE 372 HYDROMECHANICS
Credit (Theoretical- Application-Laboratory): (3-0-2) 4
Offered Semester: Spring Semesters
CE 371 should be completed before taking
CE 372 HYDROMECHANICS
Course Objective
The aim of the course is to teach the basic concepts of flows in pipes and open channels; to apply continuity, momentum and energy principles for the solution of various pipeline and open channel problems.
Course Content
Laminar and turbulent flows. Friction factor in pipe flow. Computation of flow in single pipes: Hydraulic machinery: turbines and pumps. Pipeline systems and networks. General characteristics and classification of open channel flow: pressure and velocity distribution. Continuity equation. Energy concept. Momentum principle. Uniform flow. Rapidly varied flow gradually-varied flow. Design of nonerodible and erodible channels.
Learning Outcomes
To increase the ability to use the basic fluid mechanics principles to solve pipe and channel flow problems. Apply knowledge of mathematics and fluid mechanics to design and conduct experiments, to analyze and interpret data. To analyze and design pipeline systems, open channel systems.
CE 398 INTRODUCTION TO COASTAL AND HARBOR ENGINEERING
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Spring Semesters
Course Objective
The objectives of this course are to enable the students to understand the basics of water waves, refraction, shoaling, diffraction and reflection of waves, wave breaking phenomenon. In line with these topics wind waves and wave prediction, principles of coastal sedimentation, forces on massive structures, breakwaters are also taught in order to make the students to capture the basic concepts of coastal engineering.
Course Content
Introduction to water waves, basic equations of wave motion, wave transformations, wave run-up and overtopping, wind generated waves, coastal sediment problems, kinds and functions of coastal and harbor structures, wave forces on vertical walls, stability and design of rubble mound breakwaters.
Learning Outcomes
The students are expected to understand the basic concepts of coastal engineering like wave breaking, diffraction, refraction, shoaling etc. The students are also expected to know some preliminary design concepts of rubble-mound breakwaters and vertical wall structures.
CE 382 REINFORCED CONCRETE FUNDAMENTALS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Spring Semesters
CE 224 should be completed before taking
CE 382 REINFORCED CONCRETE FUNDAMENTALS.
Course Objective
The major objectives of this course are: To establish the basic principles of reinforced concrete structural member and sytem behaviour and To introduce the basic principles of the analytical methods and design procedures.
Course Content
Mechanical behavior of concrete in uniaxial and multiaxial states of stress. Time dependent behavior of concrete. Mechanical behavior of reinforcing steel. Behavior and strength of uniaxially loaded members; confinement. Behavior and strength of members in pure bending. Behavior and strength of members under combined bending and axial load. Behavior and strength of members under combined shear and bending.
Learning Outcomes
At the end of the course, the successful student is expected to be able to, To interpret indications of different reinforced concrete structural behaviour types to a certain extent; To perform analysis and design computations for some basic structural members concerning some basic problems; To check the the validity of computer outcomes using some simple manual approximate methods of computation.
CE 384 STRUCTURAL ANALYSIS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Spring Semesters
CE 323 should be completed before taking
CE 384 STRUCTURAL ANALYSIS.
Course Objective
The major objective of the course is to give students the ability to analyze statically indeterminate structures using classical methods of structural analysis (slope-deflection, moment-distribution and matrix-displacement method). In addition, some commercially available programs (SAP2000, LARSA) are introduced for demonstrating the computer analyses of such systems.
Course Content
Introduction to structural analysis. Displacement methods: slope deflection, moment distribution, special topics. Stiffness method, derivation of element stiffness matrices, assembly procedures. Computerized implementation of the stiffness method and use of instructional programs. Large scale structural analysis. Influence lines and moving loads.
Learning Outcomes
By the end of the course, students will comprehend the behaviour and general characteristics of statically indeterminate structures analyze these structures using classical methods of structural analysis (slope-deflection, moment-distribution and matrix-displacement) provide insight into the use and implementation of some commercially available programs for computer analyses of such structures.
TÖB 102 TURKISH II NC
FOURTH YEAR
SEVENTH SEMESTER
CE 400 SUMMER PRACTICE II NC Offered Semester: Fall Semesters
Course Objective
This course is intended to provide students an exposure to the practice of engineering in real world.
Course Content
Subjects that are acceptable for summer practice: quantity and cost estimates, application of plans to site conditions, mix design, taking part in reinforced concrete work. Structural, highway and hydraulic designs. Preparing standard engineering drawings (30 working days).
Learning Outcomes
It provides the students with valuable on-the-job practical experience which enhances the educational experience received in the undergraduate CE program.
CE 410 CIVIL ENGINEERING DESIGN
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall Semesters
Course Objective
-Introduce the students to professional practice. -Involve the students in open-minded design and emphasize the importance of interdisciplinary planning, coordination, communication and technical report writing. -Perform the tasks of a preliminary civil engineering design. -Prepare, submit and present civil engineering deliverables.
Learning Outcomes
This course aims to provide a learning activity in which the analytical knowledge gained from previous courses of different disciplines is joined with the practice of engineering in a final hands-on project. It is hoped that the course will bring the practical side of engineering design in the classroom and provide design experience for the students.
CE 471 WATER RESOURCES ENGINEERING
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall Semesters
CE 372 should be completed before taking
CE 471 WATER RESOURCES ENGINEERING.
Course Objective
The objectives of this course are to give basic concepts of water resources engineering and to enable the students to use basic information in design applications in this field.
Course Content
Introduction to water resources. Classification of dams; gravity dams, arch dams, fill dams. Failure and rehabilitation of dams. Types of spillways, energy dissipation facilities, crest gates. Water uses and quantities, water characteristics and quality, water treatment, elements of water transmission and distribution. Origin and collection of wastewater and strom water, design and construction of sewer systems. Land classification for irrigation, soil-water relationships, irrigation methods and structures, design of classical irrigation networks. Characteristics of land drainage, design of surface and subsurface drainage systems. Hydroelectric power plants, estimation of hydropower potential, turbines.
Learning Outcomes
At the end of the course unit, the learner is expected to be able to carry out design and analysis of some hydraulic systems.
CE 485 FUNDAMENTALS OF STEEL DESIGN
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall Semesters
CE 323 should be completed before taking CE 485 FUNDAMENTALS OF STEEL DESIGN.
Course Objective
This course is one of the main courses in which design concepts will be introduced to the student. The course will teach basic principles of design and fundamentals of steel structures. Students will utilise their knowledge from mechanics, strength of materials and structural analysis to design a structure using steel as a material.
Course Content
General concepts in design. Design methods, loads (dead, live, wind, snow and earthquake), codes, safety serviceability. Behavior of steel structures. Tension members, compression members, beams, beam-columns, types and behavior of connections in steel structures, bolted welded connections.
Learning Outcomes
The learner is expected to able to know the behavior and design of steel structural members, and connections. Also learn to design according to Design Standards. In this course, the basic loads have been teached including the earthquake forces.
TECHNICAL ELECTIVE **
TECHNICAL ELECTIVE **
EIGHTH SEMESTER
FREE ELECTIVE
DESIGN ELECTIVE *
TECHNICAL ELECTIVE **
TECHNICAL ELECTIVE **
TECHNICAL ELECTIVE **
MUGLA UNIVERSITY
ENGINEERING FACULTY
DEPARTMENT OF CIVIL ENGINEERING
DESCRIPTION OF ELECTIVE COURSES IN DEPARTMENT
CE 376 ENGINEERING HYDROLOGY
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Spring Semesters
Course Objective
To tackle and solve the problems in areas of water sciences considering the elements of the HYDROLOGIC CYCLE.Namely Use of water ; control of water; and manage the quantity/quality of water to Civil Engineering students. So the hydrologist and practitioners educated in this field must deal with some of the objectives as: Determine the amount of water for various needs; determine the amount of available water; and use of water efficiently and effectivily.
Course Content
Hydrologic analysis in water resources: Precipitation, streamflow and hydrograph analysis. Hydrologic flood routing. Statistical analysis in water resources. Groundwater hydrology. Engineering applications.
Learning Outcomes
Thoretical and practical background on the subjects of Surface water hydrology (precipitation, infiltration, runoff,separatrion techniques, unit hydrograph, channel and reservoir routing) Ground water hydrology and hydraulics with confined and leaky aquifers, superposition techniques for multi-well; variable discharge and boundary conditions.
CE 411 ADVANCED SURVEYING AND GEODESY
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Once in several years.
STA 303 and MATH 305 should be completed before taking
CE 411 ADVANCED SURVEYING AND GEODESY .
Course Content
Earths gravity field and natural coordinate systems. Differential geometry of ellipsoidal datum: first and second fundamental forms, normal sections, normal and principle curvatures. Least square adjustment: Indirect model, observation equations, covariance law, adjustment calculations. Geodetic vertical control, precise leveling. Terrestrial methods of relative positioning: trilateration and precise traverse. Reduction of observations. Introduction to Global Positioning Systems (GPS). CE 413 INTRODUCTION TO GEOGRAPHIC INFORMATION SYSTEMS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester:Fall or Spring Semester
Course Objective
The objectives of this course are to enable the students to understand the fundemantal components of GIS, to learn data acquisition, data structures, database systems and concepts, raster and vector GIS systems, integrated GIS analysis.
Course Content
Introduction to Geographic Information Systems (GIS), basic GIS components, GIS technology, data acquisition, data structures, databases, database systems and concepts, vector and raster GIS systems, GIS applications, error and uncertainty.
Learning Outcomes
The learner is expected to know the fundamental concepts of Geographic Information Systems, familiarize a GIS software,handle a problem within GIS framework.
CE 414 PHYSICAL GEODESY
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester:Fall Semester
STA 303 and MATH 305 should be completed before taking CE 414 PHYSICAL GEODESY
Review of potential theory: Vector fields, curvilinear coordinate systems, Laplace equation, boundary value problems, Green's identities. Geodetic boundary value problems, Stoke's and Vening-Meinesz's integrals. Gravity measurements and reductions: Free air, Bouguer and isostatic gravity anomalies. Practical methods of geoid computation: Quadrature and integral transform techniques. Combination of satellite and terrestrial data for geoid determination.
CE 418 DESIGN OF TALL BUILDING STRUCTURES
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 382, CE 384 and CE 485 should be completed before taking CE 418 DESIGN OF TALL BUILDING STRUCTURES .
Course Objective
The main objective of the course is to teach the basic concepts of design and structural systems of tall building structures with computer and design applications to undergraduate and graduate students.
Course Content
Examination of the methods of analysis and design criteria, behavior and modeling for tall buildings. Cast-in place concrete in tall building design: high-strength concrete, concrete-filled steel tubes, ductile structural walls. Steel in tall building design: steel moment resisting frame, steel braced frames, semi-rigid connections in steel frames, cold-formed steel in tall buildings. Mixed structural systems: tube, braced tube in very tall buildings. Foundations for Tall Building Structures. Computer and design applications.
Learning Outcomes
An ability to apply knowledge of mathematics, science, and engineering, an ability to design and conduct experiments, as well as to analyze and interpret data, and an ability to use the techniques, skills, and modern engineering tools necessary for engineering design and practice
CE 419 COMPUTER APPLICATIONS IN HYDRAULICS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
CE 372 and MATH 305 should be completed before taking
CE 419 COMPUTER APPLICATION IN HYDRAULICS
Course Objective
The objective of the course is to enhance students' appreciation of the significance of computers in solving engineering problems encountered in hydraulics. Furthermore, it is intended that the students will get both "in depth" understanding of the selected topics and "hands on" experience on the related computer software.
Course Content
Presentation of software and computer tools relevant to hydraulic engineering problems including design of orifices and weirs, water level computations, drainage inlet design, culvert hydraulics, pressure piping systems and water quality analysis, storm sewer design and gravity piping systems and sanitary sewer design.
Learning Outcomes
The students will have a good understanding of the role played by computers and the software used on computers in solving steady and transient flows in closed conduit flows, network analysis, gradually varied flow in open channels, design of storm sewer systems, culvert hydraulics, etc. That, in turn, will improve their self confidence in tackling any new hydraulic problems they may encounter in their professional careers.
CE 420 IRRIGATION AND DRAINAGE
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Content
The need for correcting the natural distribution of water. Irrigation systems: Rotation system, demand system, limited demand system, unit area unit water system. Types of irrigation networks. Required information for the design of irrigation projects. General principles of system layout. Computational principles for channel design.
CE 421 APPLIED SURFACE HYDROLOGY
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
CE 376 should be completed before taking CE421 APPLIED SURFACE HYDROLOGY.
Course Content
Hydrologic cycle and climate. Basin characteristics. Precipitation and streamflow data and their analysis. Hydrograph analysis. Statistical analysis of hydrologic data. DAD and IDF curves. Applications in all these subjects.
CE 423 ADVANCED MECHANICS OF MATERIALS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
CE 224 should be completed before taking CE 423 ADVANCED MECHANICS OF MATERIALS.
Course Objective
This course is designed to teach carefully selected advanced topics in mechanics of materials. The objective of the course is to broaden the horizons of the students in the field of mechanics of materials. The course also aims at creation of an environment in which the students are encouraged to participate in the development of solution algorithms of various problems and, in this way, to improve the problem solving skills of the students.
Course Content
Analysis of stress in 3D. Strains and stress-strain relations in 3D. Mechanical behavior of materials. Failure theories. Beams on elastic foundations. Elastic stability of axially loaded members. Solution techniques by energy and finite difference approaches.
Learning Outcomes
At the end of the course unit, the students will be furbished with comprehensive knowledge and problem solving skills in a wider field of mechanics of materials.
CE 424 URBAN HYDROLOGY AND HYDRAULICS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Once in several years.
Course Content
Urban climate. Hydrological consequences of urbanization. Intensity-duration-frequency curves. Design hyetograph. Rainfall losses: SCS method, Green and Ampt method. Rational method, Modified Rational method. Detention basins, retention basins. Overland flow. Reservoir routing, hydraulic routing. Overview of important computer models.
CE 425 INTRODUCTION TO FINITE ELEMENTS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Spring or Fall Semester.CE 384 should be completed before taking
CE 425 INTRODUCTION TO FINITE ELEMENTS.
Course Content
Matrix algebra. Potential energy and Rayleigh-Ritz Method. Element interpolation and local coordinates. Elements based on assumed displacement fields in 1-D. Plane stress analysis. Higher order elements. Computer implementation.
CE 426 WATER SUPPLY AND WASTEWATER ENGINEERING DESIGN
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Course Content
Quantity of water and wastewater, aqueducts and water pipes, pumps and pumping stations, quality of water supplies, treatment of water-clarification and filtration miscellaneous water treatment methods, wastewater collection, sewers, flow in sewers and sewer appurtenances, design of sewer systems.
Course Objective
s:
This course is basically prepared to give students an ability to understand the concept of water supply, treatment principles and design wastewater collection system.
CE 427 CIVIL ENGINEERING SYSTEM ANALYSIS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Once in several years.
Course Content
Introduction to major concepts and analytic procedures for the identification and selection of optimal systems. Systematic survey of theory and applications of mathematical optimization to engineering problems. Evaluation procedures for single and multiattributed problems, covering utility theory and statistical decision analysis.
CE 428 HYDROSYSTEMS ENGINEERING AND MANAGEMENT
Credit (Theoretical- Application-Laboratory): (3-0) 3
Offered Semester:Fall or Spring Semesters.
Course Objective
To provide a systematic framework for hydrosystems modelling in engineering and management. Focus will be on bringing together the use of economics, operations research, probability and statistics with the use of hydrology, hydraulics, and water resources for the analysis, design, operation and management of water projects.
Course Content
Introduction. Descriptions of hydrosystems, the systems concept, economics of hydrosystems, system analysis techniques, linear programming applications, uncertainty and reliability analysis of hydrosystems, applications in surface and groundwater systems.
Learning Outcomes
An ability to apply knowledge of mathematics, science, and engineering, an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice, and an ability to communicate effectively.
CE 429 WATER SUPPLY ENGINEERING DESIGN
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester:Fall or Spring Semesters
CE 471 should be completed before taking CE 429 WATER SUPPLY ENGINEERING DESIGN.
Course Objective
The objectives of this course are to enable the students to understand the basic problems of Water Supply and Distribution with special emphasis on how to design a Water Distribution Network. Students are expected to make a design project after having collected the necessary data using the recordings of the SCADA system of the associated water utility including street plan related to the extension work of that system. Students are offered an extensive hydraulic review at the beginning of the semester concerning their project. Each student submits a term project.
Course Content
Pump, valves, friction loss formulae. Water transmission by pipelines. Hydraulics and operation of pumped discharge lines and gravity pipelines. Design of pipelines. Hydraulics, operation and design of water distribution systems. Municipal water requirements, extension of population. Hardy-Cross method. Newton-Raphson method.
Learning Outcomes
At the end of the course, the learner is expected to be able to master basic hydraulic concepts related to the design and analysis of water transmission lines and to be able to make decisions for designing a water distribution network.
CE 430 PRACTICAL ASPECTS OF CONSTRUCTION MANAGEMENT
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester:Fall or Spring Semesters
Course Objective
To introduce the concept of construction project management and fundamentals of construction planning. To provide students with information on contract types, organisational structures, procedures and practical aspects of site management. To present basics of planning, network analysis and techniques for making cost-time tradeoffs.
Course Content
Introduction to management, general description of construction industry, contract systems, types of construction contracts. Review of typical organizational structures for construction companies and projects. Planning and scheduling, resource analyses and leveling, management of resources. Survey of main activities and procedures for starting a new project. Communication basics and communication in construction sites. Monitoring and control systems. Procedures and formalities for project completion.
Learning Outcomes
Course Objectives are significantly related with the following ABET outcomes: a. An ability to communicate effectively. b. An understanding of professional and ethical responsibility. c. The broad education necessary to understand the impact of engineering solutions in a global and societal context. d. A knowledge of contemporary issues. e. An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.
CE 434 CONSTRUCTION PLANNING
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester:Fall or Spring Semesters
Course Objective
Construction industry has a very poor reputation for achieving planned completion dates within estimated cost budgets. In the case of developing countries, delays and frequent changes in plans and specifications are very common. To compensate these adverse consequences, frequent updating of construction projects is essential. In the framework of this course; the theoretical background of Critical Path Method (CPM) and Probabilistic Evaluation and Review Technique (PERT) are given and also illustrated with a computer application. Thus, the student is furnished with the theoretical aspects as well as practical solutions of the construction planning process.
Course Content
Economical and juridical basis of construction planning. Methods of planning. Gantt charts, cyclogrammes, networks. (CPM and PERT) Arrow and precedence systems. Resource leveling and time-cost trade-offs. Probabilistic and deterministic networks. Computer applications of construction planning process by using available softwares. Problems encountered during implementation.
Learning Outcomes
The student will be furnished with the basic priciples of construction planning. The practical applications of CPM will be shown via the usage of a planning software. Thus the student is expected to gain knowledge both in theoretical and practical basis.
CE 435 CONSTRUCTION SITE TECHNIQUES
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester:Fall or Spring Semesters
Course Objective
The objective is to give the basics about site organization and site procedures of a construction project
Course Content
Principles of construction job layout: working schedules; materials; manpower and equipment requirements on the job; organization for building, bridge, tunnel, airport, dam, and harbor sites; Rock drilling and blasting operations, service roads, service bridges, narrow gauge railroads.
Learning Outcomes
The student will be able to set up a construction site and will be able to adminester it.
CE 436 FORMS AND SCAFFOLDING FOR REINFORCED CONCRETE STRUCTURES
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Once in several years
Course Content
General objectives and economic considerations in formwork and scaffolding design and construction. Form materials and fastening elements used. Fresh concrete pressure of forms. Impact loads and vibration effect. Design of foundation, wall, slab, beam, and column forms. Bridge forms, thin shell roof forms and slipforms.
CE 437 INSULATION OF BUILDINGS.
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Course Content
:
Heat losses and gains in buildings. Thermal insulation materials. Calculations for thermal insulation. Insulation of buildings against water proofing systems. Sound insulation in buildings airborne and impact noises. Sound absorption and absorbent materials. Effects of fire on building materials and components. Fire proofing materials.
Course Objective
:
To provide the student with an understanding of building physics. To give basic information regarding heat transfer, water and moisture effects, airborne and impact noises and effects of fire in building components. To familiarize with relevant insulation materials and systems and simplified insulation calculations.
CE 438 LEGAL ASPECTS IN CONSTRUCTION WORKS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Content
General information about construction industry. Laws; code of obligations. Documents in a contract file, types of contracts and contractorship licenses, Bidding Act. No. 2886. Control Regulations for Public Works. General Specifications for Public Works. Documents kept on site. Technical Specifications. Quantity measurement, monthly payments. Final account and payment. Settlement of disputes. Safety in construction
CE 439 RAILWAY AND METRO TUNNELS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Content
Development of railway and metro tunnels. Profiles and cross-sections of railways and metros. Theories of vertical, lateral and bottom pressures. A numerical example by segment design. Novel techniques and equipment used in construction. Metro tunnel characteristics and general pattern of planning. Subway and deep level stations. Ventilation and aerodynamic aspects. Some important examples. NATM method and cost calculations.
CE 441 HIGHWAY MATERIALS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Content
Nature, sources, and uses of asphalt. Production and classification of asphalts. Chemistry of asphalt. Physical properties of asphalt. Tests on asphalts. Classification and properties of mineral aggregates. Test on aggregates. Aggregate calculations. Types of asphalts aggregate combinations and their applications. Significant properties of asphalt paving mixture calculation. Asphalt mix design.
CE 445 CONCRETE-MAKING MATERIALS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Objective
Concrete is the most widely used construction material in the world. Therefore, the properties of this material have to be known very well. In order to know and realize the importance and properties of concrete, the properties of the materials that compose concrete need to be known as well. In brief, the objective of this course is to give necessary information on cements, aggregates, admixtures and water.
Course Content
Properties and types of cements and aggregates. Methods and standards of mixing water. Chemical and mineral admixtures.
Learning Outcomes
At the end of the course, the learner is expected to get the necessary knowledge on cements, aggregates, admixtures and water in order to use these materials efficiently and correctly in designing concrete mixes.
CE 446 PROPERTIES OF FRESH AND HARDENED CONCRETE
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Objective
The civil engineering students meet with concrete to a certain extent in their second year course, CE 244 - Materials of Construction. Due to the time limitation, only limited information on the properties of concrete can be taught in CE 244. Therefore, this course on "Properties of Fresh and Hardened Concrete" is planned to furnish the fourth year students the necessary information on fresh and hardened concrete. Those students taking such a course will not only learn the properties of concrete but also properly evaluate the importance of concrete from the technical and economic viewpoints.
Course Content
Properties of fresh concrete: Workability, consistency, bleeding, stiffening, setting, air-entrainment, unit weight, uniformity, batching, mixing, conveying, placing, compaction and curing. Properties of hardened concrete: Nature and significance of concrete strength, kinds of strength, compressive strength, tensile strength, fatigue strength; durability, shrinkage and volume changes.
Learning Outcomes
At the end of the course, the learner is expected to learn the properties of concrete both in fresh and hardened states. This will form the basis to make successful mix-designs and use concrete efficiently.
CE 447 ADVANCED MATERIALS OF CONSTRUCTION
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Objective
The objectives of this course are to provide the students with the knowledge of construction materials in an advanced level (starting from atomic and microstructural level of materials and further analyzing general properties of materials which are used in civil engineering applications).
Course Content
Characteristics of construction materials, deterioration of building materials, ferrous metals and various methods for shaping metals, alloys of metals, steel, structural steel types, non-ferrous metals, precast concrete blocks, brick and tile, wood and wood products, polymers and various adhesives.
Learning Outcomes
At the end of the course, the learner is expected to know the materials which he/she may come across during a construction, their properties and usage in detail.
CE 451 ANALYSIS OF TRANSPORTATION SYSTEMS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Objective
The objective of the course is to provide analytical tools for those students interested in majoring in transportation engineering to analyze the transport systems.
Course Content
Development of transportation demand and supply models. Analysis of cost functions, cost estimating methods and some general cost function. Merging supply and demand models for network equilibration. Simulation and optimizing approaches for equilibrium. Evaluation of alternative transportation systems. Transport regulation in an inefficient or in an excessive competitive environment. Cost and demand conditions of a regulated industry.
Learning Outcomes
The students would enable to analyze any passenger and freight transport system by considering the demand and the supply sides to achieve an equilibrated network so that the system could be operated in an efficient an economical environment.
CE 452 TRAFFIC SAFETY AND ACCIDENT INVESTIGATION
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters
Course Content
Introduction, causes of traffic accidents, statistical report on road accidents, safety effectiveness of highway design elements, identification of problem locations, data analysis of problem locations, accident reporting systems, education and training, rescue and hospital services.
CE 454 PAVEMENT MAINTENANCE AND REHABILITATION
Credit (Theoretical- Application-Laboratory): (2-2) 3
Offered Semester: Fall or Spring Semesters.
Course Objective
The objective of this course is to enable the students to learn the most reliable and cost-effective rehabilitation techniques for both flexible and rigid pavements. The course also provides students with the understanding of the process of pavement maintenance and rehabilitation techniques in logical sequence involving existing pavement structural evaluation, condition assessment, identification of distress mechanisms, life-cycle costs analysis and selection of feasible alternatives.
Learning Outcomes
At the end of the course, the students will demonstrate the ability to: - distinguish between flexible pavements and rigid pavements, their structural layers and construction processes - perform initial site surveys to gather necessary information for pavement condition evaluation and distress surveys and prepare charts and plots to summarize their survey results - conduct detailed load associated distress surveys and identify their possible reasons and mechanisms for the observed distresses - prepare rehabilitation and maintenance project plan to remedy deteriorated pavement sections - propose a number of alternative rehabilitation and maintenance projects to recover the serviceability of existing pavement equivalent to that of new constructed pavement - perform life cycle cost analyses of feasible alternatives and analyze them for their cost, maintainability, constructability and reliability throughout their service life - determine the most feasible alternative and present evaluation and analysis results to support the reasons for the selected alternative plan.
CE 457 HIGHWAY DESIGN
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 353 should be completed before taking CE 457 HIGHWAY DESIGN
Course Objective
The objectives are to introduce the principles geometric design of highways and to provide the students to practice completing a partial highway design project.
Course Content
Stopping and passing sight distance, zero line application simple horizontal curve, compound and reverse curves, transition length and superelevation, surface and subsurface drainage, culvert design, types of pavements, material characteristics for subgrade, subbase, base, binder and wearing courses, thickness design using AASHTO 86 design manual, discussion of other pavement design approaches, properties of concrete, asphaltic concrete.
Learning Outcomes
The stuents are expected to handle the basic inputs for geometric design of highways, to evaluate the inputs and formulate the design problem using the relevant standards and to process design work including preparation of necessary drawings by using any suitable software.
CE 461 COMPUTER APPLICATIONS IN FOUNDATION ENGINEERING
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
Course Content
Settlement. Bearing Capacity of Shallow and Deep Foundations. Stability problems and problems of practical interest.
CE 462 FOUNDATION ENGINEERING 2
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
Course Objective
The course emphasize pile foundation design and teach the state of the art concepts of behavior and design of single piles and pile groups. Course Content
Deep foundations. Piles and pile foundations, types of piles, pile foundation design. Types of sheet pile walls. Single-wall, double-wall and cellular cofferdams. Box open and pneumatic caissons. Underpinning of existing structures.
Learning Outcomes
The course gives; -An ability to use the techniques, skills and modern engineering tolls necessary for engineering practice -An ability to identify, formulate and solve engineering problems.
CE 464 GROUND IMPROVEMENT
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
Course Objective
The objective is to introduce the full spectrum of ground improvement methods to civil engineering undergraduates. Some of the methods are quite new. This course is a supplementary course to CE 366 Foundation Engineering.
Course Content
Preloading, vertical drains, deep compaction of cohesionless soils: vibrofloatation, vibratory probes, compaction piles, dynamic compaction, blasting, grouting: permeating grouting, compaction grouting, chemical grouting, jet grouting, deep mixing. Soil reinforcement: Soil nailing, micro piles, reinforced earth, stone columns, lime columns, geotextiles, freezing, electro-osmosis.
Learning Outcomes
An ability to apply knowledge of mathematics, science, and engineering, an ability to design and conduct experiments, as well as to analyze and interpret data, and an ability to use the techniques, skills, and modern engineering tools necessary for engineering design and practice.
CE 465 EARTH STRUCTURES
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 363 should be completed before taking CE 465 EARTH STRUCTURES
Course Objective
The objectives of this course are to familiarize the students with the basic types of embankment dams, with special emphasis on the methods of stability analysis, and the estimation of the pore pressures under the different conditions of the dam such as during and immediately after the completion of construction, during steady seapage, and during rapid drawdown
Course Content
Highway and railway fills, earth dams. General principles of design, the choice of the type of dam. The circular arc method of stability analysis; the prediction of pore pressures during construction, steady seepage and rapid drawdown. Special methods of analysis for rock fill dams. Design in earthquake areas.
Learning Outcomes
At the end of the course unit, the student is expected to be able to read and understand any book or article on the wide subject of the design and constuction of embankment dams; be able to choose the cross-section appropiate to the site in question; to be able to detemine the relevant soil properties, and carry out the necessary stability analyses for the safety of the dam; and to be able to choose details of the cross-section that will enhance safety in earthquake regions.
CE 467 INTRODUCTION TO SOIL DYNAMICS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Content
Fundamentals of vibration. Earthquakes and ground vibrations. Shear modulus and damping in soils. Response of soil layers to earthquake motions. Lateral earth pressures on retaining walls. Mononobe-Okabe active earth pressure theory. Liquefaction of soils. Stability of slopes and dams under seismic loads. Dynamic Bearing capacity and settlement of foundations.
CE 468 GEOTECHNICAL DESIGN
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 362 and CE 366 should be completed before taking CE 468 GEOTECHNICAL DESIGN
Course Objective
Given the structure and soil profile and soil properties to teach how to proceed in foundation/geotechnical design.To introduce students to professional practice and design codes.
Learning Outcomes
Basic principles of soil mechanics and foundation engineering are given in the undergraduate courses. Although various problems are solved in these courses many design details are not given, and students are not trained in open-ended "real life" design problems integrating and reflecting their knowledge. The course is aimed at closing this gap, and planned to go through several geotechnical design problems which are commonly faced by civil engineers. Course Content Design problems in geotechnical engineering: Shallow foundations, consideration of differential settlements, foundations on bored and driven piles, dewatering of a foundation pit, stabilization of landslips by various methods, In-situ retaining structures for excavation support, foundations on problem soils, ground improvement against excessive settlements and liquefaction.
CE 470 INTERMEDIATE FLUID MECHANICS
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 371 should be completed before taking CE 470 INTERMEDIATE FLUID MECHANICS
Course Content
Bernoulli equation, Differential analysis of fluid flow; conservation of mass, stream function, Navier-Stokes equations, some simple solutions. Potential flow, Euler's equation, velocity potential, elementary plane flows, superposition. Viscous flow; pipe flow, Reynolds stresses, eddy viscosity, mixing length, theory, velocity profiles, boundary layer concepts, boundary layer equations, flat plate, separation, lift and drag. Measurement of discharge, pressure, velocity, turbulence.
CE 473 OPEN CHANNEL HYDRAULICS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Objective
The goals of the course are to recapitulate with which the students are assumed to be already familiar and to emphasize certain points that are of particular interest in later applications to control open-channel flow and to teach the design of over flow spillways and energy dissipators.
Course Content
General equation of gradually varied flows (GVF). Types of channel slopes. Characteristics and classification of GVF profiles. Solution of GVF equations. Characteristics of rapidly varied flow. Flow over spillways. Crest shape and discharge of the overflow spillways. Basic characteristics of the jump. Stilling basins. Flow measurement in open channel. types of flow measurement structures. Sharp-, short-, and broad-crested weirs.
Learning Outcomes
an ability to design a system, component, or process to meet desired needs, a knowledge of contemporary issues, and an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.
CE 475 INTR. TO GROUNDWATER FLOW MODELING
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
Course Content
Basic concepts of groundwater modeling. Fundamentals of mathematical models. Governing equations of groundwater flow. Review of modeling techniques and their comparison. Analytical models. Numerical models by finite differences. Application of selected models.
CE 476 GROUNDWATER ENGINEERING
Credit (Theoretical- Application-Laboratory): (3-0-3) 3
Offered Semester: Once in several years.
CE 372 should be completed before taking CE 476 GROUNDWATER ENGINEERING.
Course Content
Fundamental concepts, hydrologic cycle, ground water, aquifer types, differential equations of confined and unconfined aquifers. Well hydraulics. Analytical and graphical solution. Modeling of ground water flow. Construction of wells. Management of ground water: Ground water budget, concepts of basin yield, basin management by conjunctive use, artificial recharge. Surface and subsurface investigations of ground water. Saline water intrusion in aquifers.
CE 477 DESIGN OF WASTEWATER COLLECTION SYSTEMS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Once in several years.
Course Content
Waste water systems, sources of waste water, hydraulics of waste water flow, combined and separate sewers. Manning equation, flow in partially filled sewers, self cleansing of pipes, design of sanitary sewers, system layout main sewers, manholes, house and building connections, sewer profiles, design criteria, population estimate, peak factors, construction and maintenance of sewer systems, Turkish standards for sewerage system construction.
CE 481 REINFORCED CONCRETE STRUCTURES
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
CE 382 should be completed before taking CE 481 REINFORCED CONCRETE STRUCTURES.
Course Objective
Together with CE382, this course establishes a reasonable background in reinforced concrete for those who are inclined towards structural engineering.
Course Content
General RC behavior: Moment-curvature relationship; plastic hinge, redistribution. Behavior and strength of members under combined shear and torsion: Equilibrium torsion, compatibility torsion, punching, capacity design. Repair/Strengthening Principles: Column, beam, slab repair, structural system improvement. Seismic design principles. Serviceability. Detailing.
Learning Outcomes
The objective of this course is to improve the ability of the interested students to design RC frame, wall or wall-frame structures and its components for gravity and earthquake induced loading. In addition, the course aims at the recognition of the need for life-long learning and directs the students towards research. For this purpose students are asked to form small groups (3-4 students form one group) and each group is a assigned a research topic. The groups are asked to present a 30 page report and make an oral presentation (not longer than 30 minutes) on their research topic. In this respect, the course also aims at the development of the ability to use the techniques and the skills for engineering practice and to communicate effectively.
CE 482 STEEL STRUCTURES
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Objective
The objective of this course is to enable students to understand the principles of steel design.
Course Content
Principles of Plastic Design, Load and Resistance Factor Design, Tapered Columns, Tapered Beams, Torsion, Introduction to Plate Girders , Beam to Column Connections, Roof Trusses, Introduction to Industrial Building design, Light Gage Cold formed members.
Learning Outcomes
At the end of this course, the learner is expected to be able to perform advanced steel design. Be able to understand the modern design codes. Apply the principles to real structures of interest.
CE 483 ADVANCED STRUCTURAL ANALYSIS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.CE 384 should be completed before taking CE 483 ADVANCED STRUCTURAL ANALYSIS.
Course Objective
This course is mandatory for students who choose structural mechanics as their area of expertise. It amplifies on the scope of material covered in its prerequisite course, and provides a solid theoretical background for more advanced topics covered in other courses. It emphasizes computed-aided solution techniques coded in currently used structural analysis software. The basic Course Objective is to enable students to manage the requirements of modern structural analysis in an automated environment. Its principal topics are:Basic concepts of structural analysis; virtual work principles; derivation of element stiffness matrices, assembly procedures, solution methods; special topics in structural analysis; introduction to the finite element method.
Course Content
Review of basic concepts of structural analysis, direct stiffness analysis of 2D and 3D frame structures, special techniques in stiffness analysis of structures, virtual work principles based on virtual displacements, introduction to finite element method, nonlinear analysis of frame structures for large deflections.
CE 484 PRESTRESSED CONCRETE
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
CE 382 should be completed before taking CE 484 PRESTRESSED CONCRETE.
Course Objective
Course will teach the basic principles of analysis and design of prestressed concrete members.
Course Content
The principles of prestressed concrete, construction materials and methods, losses, flexural members, analysis and design, deflections, shear, bond, torsion, disturbed regions. Axially loaded members, introduction to piles, circular prestressing, and continuous beams.
Learning Outcomes
The aim of this course is to increase the knowledge of the students in the field of Prestressed Concrete Structures, which will be used in their future engineering carrier.
CE 486 STRUCTURAL DESIGN: CONCRETE STRUCTURES
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.CE 382 should be completed before taking CE 486 STRUCTURAL DESIGN: CONCRETE STRUCTURES.
Course Objective
To increase design skills as applied in practice and to build up self confidence of the student.
Course Content
One-two way slabs, joist floors. Wall, individual, combined and continuous footings, mat foundations. Stairs. Structural systems: Framed, wall and combined structures, flat slabs, flat plates, masonry. Modeling. Approximate methods of structural analysis, most unfavorable loading. Introduction to advanced methods of construction: Prefabricated prestressed concrete, composite structures, etc. Professional authority and responsibility.
Learning Outcomes
To help develop and earthquake conscious engineer who has developed self confidence and can ask critical questions about an engineering problem.
CE 487 INTRODUCTION TO STRUCTURAL DYNAMICS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Content
Dynamic disturbances. Single and multi degree of freedom systems. Continuous systems. Equations of motion. Energy methods in structural dynamics. Application in structural design. Earthquake response of structures.
CE 488 COMPUTER APPLICATIONS IN STRUCTURAL EN
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
CE 384 should be completed before taking CE 488 COMPUTER APPLICATIONS IN STRUCTURAL EN.
Course Objective
To provide the modern civil engineering student with practical training in structural engineering computer methods so that the student can both use the programs as they stand and modify them to achieve special needs. The second objective of the course is to provide a useful collection of structural engineering programs and to have each supported by the relevant theory so that all who use them will be fully aware of the underlying assumptions.
Course Content
The components of a computer system. Operating systems. Advanced FORTRAN programming. Finite-difference solution of differential equations. Introduction to finite element method and computer programs. Applications for structural mechanics problems. Utilization of package programs in modeling of structures. Three dimensional building analysis programs.
CE 489 EXPERI. BEHAVIOUR OF CONCRETE STRUC.
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 382 should be completed before taking CE 489 EXPERI. BEHAVIOUR OF CONCRETE STRUC.
Course Content
Experimental and theoretical examination of reinforced concrete structural elements as regards (i) uniaxial loading and confinement, (ii) bending behavior, (iii) shear behavior, (iv) torsion behavior, (v) bond, (vi) slab behavior and (vii) current experimental research at MU.
CE 490 EARTHQUAKE RESISTANT DESIGN
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 222 should be completed before taking CE 490 EARTHQUAKE RESISTANT DESIGN
Course Objective
The objective of this course is to teach the basic concepts of earthquake resistant design to a B.S. level Civil Engineer.
Course Content
Causes of earthquakes, characteristics of earthquake ground motions, earthquake magnitude and intensity measurements. Seismic response analysis of simple structures. Derivation of elastic response spectra and earthquake design spectra. Earthquake design criteria. Free and forced vibration analysis of frame structures. Modal spectral analysis and equivalent static lateral force method. Design codes, design applications.
Learning Outcomes
On successful completion of this course, it is expected that students should be able to; * Suggest possible causes for the movements of the plates * Describe convergent, divergent, and transform types of plate boundaries * Describe elastic rebound theory as it is related to seismic activity * Distinguish between earthquake magnitude and earthquake damage (intensity) * Understand why earthquakes occur, how they are measured and categorized and the effect they may have on engineering structures * Understand the concepts of seismic forces and how they relate to engineered slopes and infrastructure * Predict the Dynamic Behavior of simple structural systems * Develop an understanding of structural dynamics of simple systems subject to harmonic, impulse and/and arbitrary loading * Construct eigenvalue solution algorithms * Employ the Response Spectrum Analysis Method for Earthquake resistant R/C Buildings * Apply the Basic Principles of Conceptual Design for Earthquake resistant R/C Buildings. * Carry out the detailed design of Earthquake resistant R/C Buildings. * Understand the concepts and implementation of TEC(1998) and other common seismic design codes.
CE 491 COASTAL ENGINEERING I
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Objective
The objectives of this course are to enable the students to understand the Small Amplitude Wave Theory, refraction, shoaling, diffraction and reflection of waves, wave breaking phenomenon. In line with these topics wind waves, wave prediction and forces on massive Structures, breakwaters are also taught in order to make the students to capture the basic concepts of coastal engineering.
Course Content
Linear wave theory, wave transformations (shoaling, refraction, breaking, diffraction, reflection), wind-generated waves and their prediction, wave climate, design of rubble mound and vertical wall breakwaters.
Learning Outcomes
At the end of the course unit, the students are expected to understand the basic concepts of coastal engineering like wave breaking, diffraction, refraction, shoaling etc. The students are also expected to know some preliminary design concepts of rubble-mound breakwaters and vertical wall structures.
CE 492 COASTAL ENGINEERING II
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Objective
The objectives of this course is convey the basic information about the coatstal processes such as coastal currents, principles of coastal sediment transport, coastal erosion and control, soft and hard measures, coastal pollution control, data collection in field and laboratory.
Course Content
Coastal currents, principles of coastal sediment transport, coastal erosion and control, coastal pollution control, data collection in field and laboratory.
Learning Outcomes
The basic information about coastal processes, how the hydrodynamics of waves occur in nearshore region, types and characteristics of sediment, the parameters effecting transport mechanism of in the nearshore region, types and characteristics of pollutants, the details of circulation, dispersion, all aspects of sea outfals
CE 493 DESIGN OF SEA OUTFALLS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall and Spring Semesters.
Course Content
Sources and types of pollutants; pollutant transport processes in coastal waters; mixing processes and models; data acquisition for sea outfall design; sea outfall design procedure; sea outfall design example, sea outfall practices in Turkey.
CE 494 PORT PLANNING AND DESIGN
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 491 should be completed before taking CE 494 PORT PLANNING AND DESIGN .
Course Content
Importance and classification of ports, ports and shipping technology, site selection. Traffic pattern, economical analysis, optimum capacity, port layout. Determination of design wave characteristics. Breakwater alignment, design of breakwaters, berthing structures, quays, bollards, fenders.
CE 495 OCEAN ENG. & UNDERWATER OPERATIONS
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Content
Scope of ocean engineering. Basic properties of ocean environment: buoyancy, flotation, stability, flow of ideal fluids, added mass, forces on objects, motion of objects in fluid. Ocean structures: fixed and floating ocean structures, phases of design, loads on ocean structures, probabilistic aspects of design. Principles of diving, human body in ocean environment, decompression sickness, safety, underwater communication, diving in special and extreme conditions, protection of scuba environment.
CE 496 PLANNING AND DESIGN OF MARINAS
Credit (Theoretical- Application-Laboratory): (2-0-2) 3
Offered Semester: Fall or Spring Semesters.
CE 491 should be completed before taking CE 496 PLANNING AND DESIGN OF MARINAS
Course Content
Classification of marinas, marina developments. Facilities and components of marinas, preliminary studies and investigations. Site selection. Layout planning and design. Marina economics. Environmental and social impacts of marinas. Marina management. Legal and administrative considerations.
CE 497 COASTAL ZONE MANAGEMENT
Credit (Theoretical- Application-Laboratory): (3-0-0) 3
Offered Semester: Fall or Spring Semesters.
Course Content
The coast and coastal issues; the boundaries, shoreland and coastal waters subsystems; introduction to coastal ecosystems; coastal resources and uses; sustainable resource development and ecocoastal engineering; environmental impact assessment; coastal water quality management; beach management; marine and coastal protected area management; coastal zone management tools and instruments; institutional arrangements, coastal management in Turkey.
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