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GRADUATE
PROGRAMS IN MECHANICAL ENGINEERING
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Web
Site of the Department
Head of Department: Gunay Anlas
Professors: Sabri Altintas, Gunay Anlas, Ahmet
R. Buyuktur*, Taner Derbentli*, Arsev Eraslan, Esref Eskinat, Emre
Kose, Haluk Ors, Huei Peng, Mahmut A. Savas*, Akin Tezel
Associate Professors: Hasan Bedir, Vahan Kalenderoglu,
F. Önder Sonmez
Assistant Professors:Emre Aksan, Cahit Can Aydiner,
Kunt Atalik, Ercan Balikci, Murat Celik, Ali Ecder, Nuri Ersoy, Hakan
Erturk, Sebnem Özupek, Cetin Yilmaz
Instructors: Metin Yilmaz*
Professor Emeritus
*Part-time
Adjunct
MASTER OF SCIENCE PROGRAM
Graduate programs in Mechanical Engineering consists of five options:
Option A: Dynamics and Control
Option B: Fluid Mechanics
Option C: Materials and Manufacturing
Option D: Solids and Design
Option E: Thermal Sciences
The M.S. program in Mechanical Engineering requires a
minimum of 24 credits hours (8 courses) of course work, seminar course
and a Master's thesis. One mathematics requirement, three core courses
and one seminar requirement must be completed together with three (elective)
courses from the selected option. The remaining course may be chosen freely
from among engineering or science graduate courses. Mathematics requirement
is satisfied by taking:
ME 501 or ME 502 Advanced Engineering Mathematics I or
II
Students who have previously taken one of these courses, or its equivalent,
may instead take an elective course approved by their advisor.
Core course requirement may be satisfied by taking one course from each
core course sequence covering three of the five options as listed below:
| Opt. A |
ME 537 State Space Control
Theory or ME 530 Advanced Dynamics |
| Opt. B and E |
ME 551 Advanced Fluid Mechanics
or ME 561 Conduction Heat Transfer |
| Opt. C |
ME 511 Principles of Materials
Science and Engineering or
ME 512 Principles of Manufacturing Processes |
| Opt. D |
ME 523 Elasticity or ME 521 Engineering
Design
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or by taking one core course from two options and the course
ME 503 Mechanics of Continua I as a substitute for the third option core
course.
In addition to the core courses requirement, students are required to
complete a minimum of 9 credits in one of the five options indicated above.
One course is to be the remaining core course of the chosen core sequence.
Option courses are listed below for both the M.S. and Ph.D. programs.
In addition to the required and option courses, students are required
take the non-credit seminar course: ME 579 Graduate Seminar.
DOCTOR OF PHILOSOPHY PROGRAM
The Ph.D. program in Mechanical Engineering includes
a minimum of 25 credits of course work and dissertation carried out according
to regulations of the Institute. The required courses for the program
are:
ME 501 and ME 502 Advanced Engineering Mathematics I and II
Students who have previously taken one of these courses, or its equivalent,
are required to take the second course. Those who have taken either one
or both of these courses, or their equivalents may instead take elective
courses approved by their advisor and the Institute.
Ph.D. students are required to identify a Major field which corresponds
to one of the five Mechanical Engineering options listed above. Three
courses for the Major field are chosen from among courses not taken in
the M.S. program. Subject to the approval of the advisor, a Minor field
consisting of a sequence of two courses is also determined. Students complete
their course requirements with an elective course complementing their
Ph.D. program.
OPTIONS IN MECHANICAL ENGINEERING
A. Dynamics and Control:
| Code |
Course |
Hours/Week
|
Credits
|
| ME 530 |
Advanced Dynamics |
3+0+0
|
3
|
| ME 537 |
State Space and Control Theory |
3+0+0
|
3
|
| ME 622 |
Advanced Vibrations |
3+0+0
|
3
|
| ME 634 |
Robotics |
3+0+0
|
3
|
| ME 636 |
System Modeling and Identification |
3+0+0
|
3
|
B. Fluid Mechanics:
| Code |
Course |
Hours/Week
|
Credits
|
| ME 551 |
Advanced Fluid Mechanics |
3+0+0
|
3
|
| ME 503 |
Mechanics of Continua I |
4+0+0
|
4
|
| ME 602 |
Mechanics of Continua II |
3+0+0
|
3
|
| ME 610 |
Finite Elements |
3+0+0
|
3
|
| ME 632 |
Approximate Solution Techniques |
3+0+0
|
3
|
| ME 652 |
Viscous Flow Theory |
3+0+0
|
3
|
| ME 653 |
Turbulent Flow Theory |
3+0+0
|
3
|
| ME 654 |
Gas Dynamics |
3+0+0
|
3
|
| ME 656 |
Computational Fluid Dynamics |
3+0+0
|
3
|
| ME 662 |
Convective Heat Transfer |
3+0+0
|
3
|
C. Materials and Manufacturing:
| Code |
Course |
Hours/Week
|
Credits
|
| ME 511 |
Principles of Material Science and Eng. |
3+0+0
|
3
|
| ME 512 |
Principles of Manufacturing Processes |
3+0+0
|
3
|
| ME 610 |
Finite Elements |
3+0+0
|
3
|
| ME 613 |
Deformation of Engineering of Materials |
3+0+0
|
3
|
| ME 614 |
Materials Processing |
3+0+0
|
3
|
| ME 618 |
Mechanical Behavior of Materials |
3+0+0
|
3
|
| ME 620 |
Fracture |
3+0+0
|
3
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D. Solids and Design:
| Code |
Course |
Hours/Week
|
Credits
|
| ME 521 |
Engineering Design |
3+0+0
|
3
|
| ME 523 |
Elasticity |
3+0+0
|
3
|
| ME 530 |
Advanced Dynamics |
3+0+0
|
3
|
| ME 503 |
Mechanics of Continua I |
4+0+0
|
4
|
| ME 602 |
Mechanics of Continua II |
3+0+0
|
3
|
| ME 610 |
Finite Elements |
3+0+0
|
3
|
| ME 618 |
Mechanical Behavior of Materials |
3+0+0
|
3
|
| ME 620 |
Fracture |
3+0+0
|
3
|
| ME 622 |
Advanced Vibrations |
3+0+0
|
3
|
| ME 632 |
Approximate Solution Techniques |
3+0+0
|
3
|
| ME 641 |
Wave Propagation |
3+0+0
|
3
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E. Thermal Sciences:
| Code |
Course |
Hours/Week
|
Credits
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| ME 561 |
Conduction Heat Transfer |
3+0+0
|
3
|
| ME 503 |
Mechanics of Continua I |
4+0+0
|
4
|
| ME 602 |
Mechanics of Continua II |
3+0+0
|
3
|
| ME 610 |
Finite Elements |
3+0+0
|
3
|
| ME 632 |
Approximate Solution Techniques |
3+0+0
|
3
|
| ME 660 |
Advanced Thermodynamics |
3+0+0
|
3
|
| ME 662 |
Convective Heat Transfer |
3+0+0
|
3
|
| ME 663 |
Radiation Heat Transfer |
3+0+0
|
3
|
| ME 664 |
Two-Phase Heat Transfer |
3+0+0
|
3
|
In addition to the option courses listed above,
| Code |
Course |
Hours/Week
|
Credits
|
| ME 581-589 |
Special Topics; 591-596 Special Studies |
3+0+0
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3
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| ME 681-689 |
Special Topics; 691-696 Special Studies |
3+0+0
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3
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| ME 597,598-697,698 |
Mechanical Engineering Seminars I, II |
1+0+0
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1
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may be considered as being a part of one of the options, depending on
the course content given in the particular semester. Thesis work is carried
out using
ME 690 M.S. Thesis
ME 790 Ph.D. Thesis
COURSE DESCRIPTIONS
ME 501 Advanced Engineering Mathematics I (3+0+0)
3
(Ileri Muhendislik Matematigi I)
Systems of linear equations; linear vector spaces; theory of matrices
and the eigenvalue problem; multivariable differential calculus; ordinary
differential equations; vectors in R3; vector field theory, Fourier series
and Fourier transform; Laplace transform; calculus of variations.
ME 502 Advanced Engineering Mathematics II (3+0+0)
3
(Ileri Muhendislik Matematigi II)
Partial differential equations; Laplace, diffusion, and wave equations;
Bessel and Legendre functions; integral equations; functions of a complex
variable; conformal mapping; complex integral calculus; series expansion
and residue theorem.
ME 511 Principles of Materials Science and Engineering
(3+0+0) 3
(Malzeme Bilimi ve Muhendisligi Prensipleri)
Atomic bonding and crystal structure, imperfections in crystals, x-ray
and electron diffraction, thermodynamics of crystals, kinetics, transport
in materials, phase transformations, annealing processes, deformation
and fracture of materials, examples of technological materials.
ME 512 Principles of Manufacturing Processes (3+0+0)
3
(Imalat Surecleri Esaslari)
Fundamentals of production and processing of metallic, ceramic and polymeric
materials. Manufacturing processes based on heating/cooling. Casting techniques.
Near net shape processes. Principles of metal forming. Thermomechanical
treatment. Surface modification.
ME 521 Engineering Design (Muhendislik Tasarimi) (3+0+0) 3
Nature and properties of materials; advanced topics of strength of materials;
analysis of composite, honeycomb and reinforced materials; pressure vessel
design; residual stresses, thermal stresses; failure theories, beyond
the elastic range; buckling; shock; impact and inertia.
ME 523 Elasticity (Elastisite) (3+0+0) 3
Cartesian tensor notation. Analysis of strain, components and compatibility
of strain. Analysis of stress; definitions and components of stress; equations
of equilibrium. Constitutive equations, generalized Hook's law; governing
equations of elasticity. Plane strain and plane stress; problems some
examples of 2-D problems of elasticity. Energy principles. Sample problems
of applied elasticity.
ME 530 Advanced Dynamics (Ileri Dinamik) (3+0+0) 3
Kinematics of rigid body motion. Coordinate tranformaitons. Rigid body
dynamics. Euler's equations of motion. Eulerian angles. Motion under no
force. Lagrange equations and their first integrals. Hamilton's equations.
Applications to mechanical engineering systems.
ME 537 State Space Control Theory (Durum Uzayi Kontrol
Kurami) (3+0+0) 3
State space representation of systems. Dynamic response from state equations.
Stability, controllability and observability. Canonical form, control
with state feedback. Pole placement. Observer based controllers. Reference
input traking. Introduction to optimal control and Lyapunov stability.
Example applications.
ME 551 Advanced Fluid Mechanics (Ileri Akiskanlar
Mekanigi) (3+0+0) 3
Dynamics of motion, constitutive equations. Incompressible flows; potential
flows, wing theory; waves. Compressible flows; thermodynamics of flow;
two dimensional potential flows, theory of small perturbations; shock
waves. Viscous flows; some exact and approximate solutions of Navier-Stokes
equations.
ME 561 Conduction Heat Transfer (Iletim ile Isi Transfer)
(3+0+0) 3
Steady and unsteady heat conduction involving various boundary conditions.
Methods of formulation. Analytical solutions and approximate methods.
ME 579 Graduate Seminar (Lisansustu Seminer) (0+1+0) 0 P/F
The widening of the students' perspectives and awareness of topics of
interest to mechanical engineers through seminars offered by faculty,
guest speakers and graduate students.
ME 581, 582, 583, 584, 585, 586, 587, 588, 589 Special Topics (3+0+0)
3
(Özel Konular)
Special topics of current interest in mechanical engineering selected
to suit the individual interests of the students and faculty in the department.
The course is designed to give the student of advanced level an opportunity
to learn about the most recent advances in the field of mechanical engineering.
ME 591, 592, 593, 594, 595, 596 Special Studies (Özel Calismalar)
(3+0+0) 3
Study of special subjects not covered in other courses at the graduate
level.
ME 597, 598 Mechanical Engineering Seminars (1+0+0)
1
(Makina Muhendisligi Seminerleri)
Subjects and speakers to be arranged.
ME 599 Guided Research (0+4+0) 0 (ECTS :8) P / F
(Yonlendirilmis Caliþmalar)
Research in the field of Mechanical Engineering, supervised by faculty.
ME 503 Mechanics of Continua I (Surekli Ortamlar Mekanigi
I) (4+0+0) 4
Vectors, matrix algebra, tensor analysis. Deformation and strain tensors.
Length, angle, area and volume changes. Kinematics of motion, mass, momentum,
moment of momentum, and energy. Fundamental axioms of mechanics. Stress;
thermodynamics of continuous media. Constitutive equations; ideally elastic
solids. Stokesian fluids.
ME 602 Mechanics of Continua II (Surekli Ortamlar
Mekanigi II) (3+0+0) 3
Constitutive equations; thermomechanical materials, elastic materials.
Stokesian fluids. Elasticity, fluid dynamics, thermoelasticity, visco-elasticity.
Linear and nonlinear physical interactions in continuous media. Selected
problems of practical importance in engineering disciplines.
ME 610 Finite Elements (Sonlu Elemanlar) (3+0+0) 3
Strong and weak statements of boundary value problems. The concept of
finite element discretization and finite interpolatory schemes. The isoparametric
concept. Programming techniques for numerically integrated finite elements.
Implemntation of finite element model and solution methods. Preprocessing
and postprocessing. Time-stepping algorithms and their implementation
approximation errors in the finite element method and error analysis.
ME 613 Deformation of Engineering Materials (3+0+0)
3
(Muhendislik Malzemelerinin Sekil Degistirmesi)
Fundamental of the mechanical behavior of materials. Elements of dislocation
theory. Plastic deformation of crystalline materials. The relationship
between microstructure and mechanical behavior at ambient and elevated
temperatures.
ME 614 Materials Processing (Malzeme Uretimi) (3+0+0)
3
Control of microstructure and alternation of material properties. Heat
treatment of steel. Precipitation hardening. Shape memory alloys. Processing
of electronic and magnetic materials. Processing of glasses. Powder metallurgy.
ME 618 Mechanical Behavior of Materials (3+0+0) 3
(Malzemelerin Mekanik Davranisi)
Treatment of elastic, plastic and creep deformation under steady and cyclic
loads. Emphasis on approximate solutions which enable the prediction of
service performance from simple tests. Failure due to fatigue, creep rupture
and plastic instability. Treatment of fracture from engineering point
of view.
ME 620 Fracture (Kirilma) (3+0+0) 3
Stress analysis of cracked members; applications of linear elastic fracture
mechanics; experimental determination of fracture toughness; microstructural
aspects of fracture toughness. Fracture prediction beyond linear elastic
range: the transition temperature approach, crack opening displacement,
J-integral. Fatigue crack initiation, propagation and stress corrosion
cracking.
ME 622 Advanced Vibrations (Ileri Titresimler) (3+0+0)
3
Vibratory response of multi-degree-of-freedom systems, matrix formulation,
concepts of impedance, frequency response, and complex mode shapes. Nonlinear
vibrations, parametric resonance. Vibration of elastic bodies. Modal analysis.
ME 625 Optimum Structural Design (En Iyi Yapisal Tasarim
) (3 +0+0) 3 (ECTS : 8)
Basic concepts of design optimization: Classical techniques in structural
optimization (differential calculus, variational calculus, Lagrange multipliers);
Karush-Kuhn-Tucker conditions. Application of linear and nonlinear programming
to structural problems. Advanced topics in structural optimization.
ME 626 Mechanics of Composite Materials (3+0+0) 3
(Kompozit Malzemelerin Mekanigi)
Types of composite materials; matrix materials, thermosets, thermoplastics,
fiber materials. Effective moduli:rule of mixtures. Constitutive relation
for anisotropic materials. Laminates: constitutive relations, transformation
equations. Strength and failure criteria. Classical theory of laminated
plates; governing relations, higher order theories, energy methods. Cylindirical
bending and vibration of laminated plates.
ME 631 Engineering Analysis (Muhendislik Analizi)
(3+0+0) 3
Planning and design of project of a comprehensive character requiring
the correlation of principles and procedures drawn from a variety of areas
in engineering and related branches of science.
ME 632 Approximate Solution Techniques (3+0+0) 3
(Yaklasik Cozum Yontemleri)
Method of weighted residuals; boundary value, eigenvalue and initial value
problems in heat and mass transfer. Application to fluid mechanics, chemical
reaction systems, convective instability problems. Variational principles
in heat and mass transfer. Convergence and error bounds.
ME 634 Robotics (Robot Sistemleri) (3+0+0) 3
Fundamental aspects of robotics and type of robots. Rotation matrices.
Homogeneous transformations. Direct kinematics. Inverse kinematics. Jacobean
matrix. Dynamic force analysis via Newton-Euler formulation. Motion equations
via Lagrangian formulation. Trajectory planning. Control methods of manipulators.
ME 636 System Modeling and Identification (3+0+0)
3
(Sistem Modelleme ve Tanilama)
Systems and models. Modeling of complex systems. Lagrange equations. Bond
graphs. System identification. Estimation from transient response. Spectra
and frequency functions. Least squares estimation. Parameter estimation
in dynamic models. Model validation.
ME 641 Wave Propagation (Dalga Yayilmasi) (3+0+0) 3
Basic equations of elastodynamics, methods of solutions. Navier's equations.
Selected problems in one and two space dimensions. Impact problems, explosion,
reflection, refraction, Rayleigh surface waves, and various other selected
problems of practical importance in diverse engineering disciplines.
ME 652 Viscous Flow Theory (Viskos Akis Kurami) (3+0+0)
3
Equation of Motion for Viscous flow Exact solutions of Navier-Stokes equations.
Creeping flow: Stokes and Oseen solutions, lubrication theory. Boundary
layer theory: similar solutions, approximate methods of solution, computer
methods of solution, stability, turbulent boundary layers. Introduction
to three-dimensional compressible boundary layer flows.
ME 653 Turbulent Flow Theory (Turbulansli Akislar
Kurami) (3+0+0) 3
Basic concepts. Scales of time, velocity, space. Time averaging of fundamental
equations. Turbulent flow theories and models. Dynamics of turbulence.
Turbulent pipe, boundary layer and force shear flows. Turbulent transport.
Statistical description of turbulence. Spectral dynamics.
ME 654 Gas Dynamics (Gaz Dinamigi) (3+0+0) 3
Basic equations of compressible flow. Wave propagation in compressible
media. One dimensional compressible flow. Equations of motion for multidimensional
flow. Methods for solution. Oblique shock. Introduction to hypersonic
flow. Introduction to rarefied gas dynamics.
ME 655 Advanced Turbine Design (Ileri Turbin Tasarimi)
(3+0+0) 3
Review of gas dynamics and thermodynamics. Velocity triangles. Two dimensional
flow in turbine stages. Turbine cascades. Calculation of design point
efficiency of turbine stages using cascade data. Potential flow and methods
of solution. Three dimensional design of turbines. Radial equilibrium
theory. Off-design performance. Introduction to turbine cooling.
ME 656 Computational Fluid Dynamics (Sayisal Akiskanlar
Dinamigi) (3+0+0) 3
Fundamentals of computational fluid dynamics and high performance computing;
basic flow models; grid generation; discretization techniques. Analysis
of linear and nonlinear systems; algorithm development; convective-diffusive
systems; turbulence modeling; combustion modeling.
Prerequisite: ME 551
ME 660 Advanced Thermodynamics (Ileri Termodinamik)
(3+0+0) 3
An advanced study of the first and second laws of thermodynamics and their
application to engineering systems and flow processes. Equilibrium conditions.
Thermodynamic potentials; systems of variable mass. Chemical equilibrium
and thermodynamics of chemical reactions. Emphasis is placed on the relationship
of thermodynamics to the broad fields of engineering and applied science.
ME 662 Convective Heat Transfer (Tasinim ile Isi Transferi) (3+0+0)
3
Basic equations of fluid flow. Differential and integral equations of
the boundary layer. Forced convection in internal and external laminar
flows. Momentum-heat transfer analogies for turbulent flow. Natural convection.
ME 663 Radiation Heat Transfer (Isinim ile Isi Transferi)
(3+0+0) 3
Basic laws of thermal radiation. Radiation properties of solids and liquids.
Exchange of thermal radiation between surfaces separated by transparent
media; non-gray and non-diffuse surfaces. Gas radiation in enclosures.
Radiation combined with conduction and/or convection.
ME 664 Two-Phase Heat Transfer (Iki Fazli Isi Transferi)
(3+0+0) 3
Nucleation and bubble growth in boiling. Pool boiling heat transfer. Critical
heat flux. Film boiling. Kinematics and dynamics of adiabatic two-phase
flow. Two phase flow with boiling and/or evaporation. Stability of two-phase
flows. Condensation.
ME 681, 682, 683, 684, 685, 686, 687, 688, 689 Special
Topics (3+0+0) 3
(Özel Konular)
Advanced special topics of current interest in mechanical engineering
selected to suit the individual interests of the students and faculty
in the department. The course is designed to give the student of advanced
level an opportunity to learn about the most recent advances in the field
of mechanical engineering.
ME 690 M.S. Thesis (Yuksek Lisans Tezi)
ME 691, 692, 693, 694, 695, 696 Special Studies (Özel
Calismalar) (3+0+0) 3
Study of special subjects not covered in other courses at the graduate
level.
ME 697, 698 Mechanical Engineering Seminars (1+0+0)
1
(Makina Muhendisligi Seminerleri)
Subjects and speakers to be arranged.
ME 699 Guided Research (Yonlendirilmis Calicmalar I) (2+0+4) 4(ECTS
:8)
Research in the field of Mechanical Engineering, by arrangement with members
of the faculty; guidance of doctoral students towards the preparation
and presentation of a research proposal.
ME 69A Guided Research II (0+4+0) 0 (ECTS :8) P /
F
(Yonlendirilmis Calismalar II )
Continued research in the field of Mechanical Engineering, supervised
by faculty; preparation and presentation of a research proposal.
ME 69B Guided Research III (0+4+0) 0 (ECTS :8) P /
F
(Yonlendirilmis Calismalar III )
Continued research in the field of Mechanical Engineering, supervised
by faculty; preparation and presentation of a research proposal.
ME 69C Guided Research IV (0+4+0) 0 (ECTS :8) P / F
(Yonlendirilmis Calismalar IV)
Continued research in the field of Mechanical Engineering, supervised
by faculty; preparation and presentation of a research proposal
ME 69D Guided Research V (0+4+0) 0 (ECTS :8) P / F
(Yonlendirilmis Calismalar V)
Continued research in the field of Mechanical Engineering, supervised
by faculty; preparation and presentation of a research proposal.
ME 790 Ph.D. Thesis (Doktora Tezi)
Web
Site of the Department
|