YILDIRIM BEYAZIT UNIVERSITY FACULTY OF ENGINEERING AND …€¦ · FACULTY OF ENGINEERING AND...

YILDIRIM BEYAZIT UNIVERSITY FACULTY OF ENGINEERING AND NATURAL SCIENCES

DEPARTMENT OF MECHANICAL ENGINEERING COURSE CONTENTS

FALL

SPRING

Course Code Course Title T L/A ECTS Course Code Course Title T L/A ECTS

FIRST YEAR

MATH101 Calculus I 4 0 6 MATH102 Calculus II 4 0 6

PHYS101 Physics I 3 2 7 PHYS102 Physics II 3 2 7

CHEM101 Chemistry 3 0 4

MCE102 Statics 4 0 5

MCE101

Introduction to Mechanical Engineering

2 0 2 MCE104

Computer Programming 3 0 3

ENGL121 Academic English I 2 0 2 ENGL122 Academic English II 2 0 3

TUR101 Turkish I 2 0 2 TUR102 Turkish II 2 0 2

MCE103 Technical Drawing 3 2 6

Total 19 4 28 Total 18 2 28

Year Total 37 6 56

Cumulative Total 37 6 56

SECOND YEAR

MCE201

Engineering Mathematics I

4 0 6 MCE202 Engineering Mathematics II

4 0

6

MCE203 Material Science 2 0 3

MCE204 Engineering Materials 2 0

3

MCE205 Dynamics 4 0 6

MCE206 Thermodynamics 3 2

7

MCE207 Strength of Materials 3 2 7

MCE208 Manufacturing Technologies 3 1

5

MCE209

Principals of Electrical and Electronic Engineering

2 0 3 MCE210 Engineering Economy 2 0

3

MCE291 University Elective (UE1) 2 0 2

MCE290 Universty Elective (UE2) 2 0

2

HIST101

Atatürk's Principles and History I

2 0 2 HIST102 Atatürk's Principles and History II 2 0

2

MCE293 Engineering Ethics 2 0 1 Total 18 3 28

Total 21 2 30 Year Total 39 3 60


Summer practice-I: 20 work days (5 weeks)

THIRD YEAR

HIST101

Atatürk's Principles and History I

2 0 2 HIST102 Atatürk's Principles and History II 2 0 2

MCE301 Fluids Mechanics 4 0 6

MCE302 Measurement and Data Evaluation 2 0 4

MCE303 Mechanisms 3 0 4

MCE304 Dynamics of Machinery 3 0 5

MCE305 Machine Elements I 4 0 5

MCE306 Machine Elements II 4 0 6

MCE307 Heat Transfer 3 0 5

MCE330 Department Elective (DE1) 3 0 5

MCE309 System Dynamics and Control

3 0 5 MCE332

Department Elective (DE2) 3 0 5

MCE311 Computer Aided Design of Mechanical Systems

3 0 5 MCE308

Department Elective (DE3) 3 0 5

Total 22 0 32 Total 20 0 32

Year Total 42 0 64


Summer practice II: 20 work days (5 weeks)

FOURTH YEAR











MCE401 Mechanical Project 2 2 8

MCE402 Final Year Project 2 4 10

MCE403 Machinery Laboratuary 1 1 2

Min Total 18 3 30

Min Total

17 4 30

Min Year Total 35 7 60

Min. Cumulative Total 153 19 240

ELECTİVE COURSES

Course Code Course Title

T L/A C ECTS Course Code Course Title

T L/A C ECTS

DE4

MCE431 Robotics 3 0 3 4 DE1

MCE430 Material Inspection 3 0 3 5

DE4

MCE431 Modern Welding Methods 3 0 3 4 DE1

MCE430 Transport Techniques 3 0 3 5

DE4

MCE431 Internal Combustion Engines 3 0 3 4 DE1

MCE430 Building Installation 3 0 3 5

DE4

MCE433 Introduction to Mechatronics 3 0 3 4 DE2

MCE432 Theory of Machining and Tool Machines

3 0 3 5

DE4

MCE433 Descriptive Geometry-I 3 0 3 4 DE2

MCE432 Finite Element Methods 3 0 3 5

DE4

MCE433 Natural Gas Installation 3 0 3 4 DE2

MCE432 Pressworking Techniques 3 0 3 5

DE4

MCE435 Introduction to Biomechanics 3 0 3 4 DE3

MCE308 Systematical Design 3 0 3 5

DE4

MCE435 Numerically Controlled Machine Tools 3 0 3 4 DE3

MCE308 Simulation in Design 3 0 3 5

DE4

MCE435 Heat Exchangers 3 0 3 4 DE3

MCE308 Principles of Project Preparation 3 0 3 5

DE4

MCE437 Introduction to Fracture Mechanics 3 0 3 4 DE3

MCE308 Design of Industrial Product 3 0 3 5

DE4

MCE437 Work Dies Technology 3 0 3 4 DE5

MCE434 Mechatronic System Design 3 0 3 4

DE4

MCE437 Automotive Engineering I 3 0 3 4 DE5

MCE434 Hydraulic Machineries 3 0 3 4

DE4

MCE439 Mechanical Vibrations 3 0 3 4 DE5

MCE434 Refrigeration Technology 3 0 3 4

DE4

MCE439 Geothermal Energy 3 0 3 4 DE5

MCE436 Acoustics and Noise Control Engineering

3 0 3 4

UE1

MCE291 Techniques of Critical and Analytical Thinking

2 0 2 2 DE5 MCE436 Quality Control

3 0 3 4

UE1

MCE291 Techniques of Research and Investigation

2 0 2 2 DE5 MCE436 Steam Boilers

3 0 3 4

UE1

MCE291 Basic Principles of Law 2 0 2 2 DE5

MCE438 Computer Aided Manufacturing 3 0 3 4

DE5

MCE438 Automotive Engineering II 3 0 3 4

DE5

MCE440 Vibration Based Predictive Maintenance

3 0 3 4

DE5

MCE440 Descriptive Geometry-II 3 0 3 4

DE5

MCE440 Applications of Solar Energy 3 0 3 4

DE5

MCE442 Wing Energy and Technologies 3 0 3 6

DE5

MCE442 Air Conditioning Technologies 3 0 3 6

UE2

MCE290 Plant Organization 2 0 2 2

UE2

MCE290 Standardisation 2 0 2 2

Course name: MCE 103 Technical Drawing

Department: Mechanical Engineering

Semester

1

Methods of Education

Credit (ECTS)

Lecture Recitation/ (Etud)

Lab Project/Field Study

Homework Other Total

6

56 45 19 60 180

Language English

Compulsory/Elective Compulsory

Prerequisites None

Course Contents

Technical Drawing terms and description, Papers-plates, Geometric drawing; Tangent joining., Dividing of the line and circle equal parts;polygon and spiral drawing., Curve of Oval, ellipse, parabola, hiperbola e.t.c. drawing, First and third projection methods, Described with single side view parts and its technical drawings, perspective, Dimensioning, Drawing and dimensioning of rotated parts, Dimensioning rules, Sections, whole and half of section, Surface roughness, Tolerances, Geometric tolerances.

Course Objectives

Drawing, evaluating drawings is necessary properties and wholeness for technical purposes, and guiding at realizing phases.

Learning Outcomes and Competences

According to recent international standards be learning and applying drawing rules concerned with machine technical drawing.

Textbook and /or References

Giesecke, E. Frederick, et. al., Technical Drawing (13th Edition), Prentice-Hall, Inc., Upper Saddle River, N.J., 2009. Şen, İ.Z., ve Ozcilingir, N., “Teknik Resim-Temel Bilgiler”, Deha Yayıncılık, İstanbul, 2007. ICS 01.100.01; 01.100.20 and 01.110 category TS EN and ISO standards Bağcı, M., Teknik Resim, Cilt I, Cilt II, Birsen Yayınevi, İstanbul, 2003. Şen, İ.Z., ve Özçilingir, N., “Standart Makina Elemanları Çizelgeleri”, Deha Yayıncılık, İstanbul,2004. Bilgi ve Uygulama Yaprakları, İhsan Toktaş 2011.

Assessment Criteria

If any, mark as (X) Percentage (%)

Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Asst.Prof. Dr. İhsan TOKTAŞ

Course name: MCE 102-

Statics

Department: Mechanical Engineering Semester

2

Methods of Education Credit (ECTS)




5 56 40 54 150

Language English


Prerequisites None

Course Contents

Fundamental Concepts and Principles of Mechanics, Moment of a Force About a Point, Concept of Couple, Equivalent Force Systems, Concept of Free Body Diagram, Equilibrium of Rigid Bodies in Two and Three Dimensions, Trusses, Section Forces in Beams, Friction Forces, Properties of Surfaces

Course Objectives

At the end of course, the student could draw free body diagrams, analyze statically determinate systems and realize internal forces in structures


The student learns logically thinking, seeing contact, friction and internal forces and can compute them, find centroid of a plane area and mass center of solids , moment of inertias of areas and masses


-J.L.Meriam, L.G.Kraige; Engineering Mechanics-Statics -Ferdinand P.Beer, E.Russell Johnston Jr.: Vector Mechanics for Engineers-Statics

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 10

Projects

Term Paper

Laboratory work

Other

Final Exam X 60

Instructors Prof.Dr. Osman YİĞİT

Course name: MCE 106 Computer Aided Technical Drawing

Department: Mechanical Engineering

Semester

2


Credit (ECTS)

Lecture Recitation/(Etud)

Lab Project/ Field Study


4

56 29 35 120

Language English


Prerequisites None

Course Contents

Introduction to AutoCAD, Line settings, Line commands, Geometrical editing commands, AutoCAD hatching technics, writing commands , layouts and line kinds, dimensioning commands, editing commands, inquiry commands, blocks, isometric drawings , plotting, application of design and drawings.

Course Objectives

The aim of this course is to teach the students the following topics in CAD so that they can design and draw the working srawings and the assembly drawings of some components.


The students should be able to: 1. Describe relations between drawing-design and part-system. 2. Describe the role of the engineer in a CAD-CAM system. 3. Draw the assembly drawing of the given components of a system or draw the detail drawings of the components of a given assembly drawing of the system. 4. Design some simple components and assemblies.


ICS 01.100.01; 01.100.20 ve 01.110 ve 25 sınıfı TS,EN ve ISO standartlarını Teknik resim,Cilt 2-Mustafa Bağcı 2003 Bilgi ve uygulama yaprakları-2,İhsan Toktaş 2011 AutoCAD , Mendi F., Taşkesen A., Toktaş İ., Eldem C., Gazi Kitapevi, Ankara, 2008.

Assessment Criteria


Midterm Exams X 20

Quizzes X 10

Homeworks X 10

Projects

Term Paper X 10

Laboratory work

Other

Final Exam X 50


,

Course name: MCE 201 Engineering

Mathematics-I

Department: Mechanical

Engineering

Semester

3


Credit (ECTS)


Lab Project/ Field Study


6

56 50 18 56 180

Language English


Prerequisites None

Course Contents

First Order Differential Equations, Second Order Differential Equations, Higher Order Differential Equations, Series, Solutions of Second Order Differential Equations, Euler-Lagrange equation, The Laplace Transform, Systems of First Order Linear Equations, Green's Functions ,Initial-Value and Boundary-Value Problems, Vector Analysis, Differential Geometry ,Tensor Analysis.

Course Objectives The objective of this course is to equip students with the background needed to carry out solution of differential equations and analysing of the special functions.


Upon successful completion of the course, the student should be familiar with and be able to: • solve first and higher order differential equations and apply them to realistic problems. • solve systems of differential equations. • solve first and second order partial differential equations. • use vector analysis to calculate distances, relative positions, projections and work.

Textbook and /or References W. E. Boyce, R.C. Diprima, Elementary Differential Equations, John Wiley and Sons, 2001

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Asst.Prof. Dr. Fatih KOYUNCU

Course name: MCE 205- Dynamics


Engineering

Semester

3


Credit (ECTS)




6

56 50 10 64 180

Language English


Prerequisites None

Course Contents

Concepts of particle and rigid body, Kinematics and kinetics of particles. Kinematics and kinetics of rigid bodies. Rectilinear and rotational motions. Absolute and relative motions Impact, impuls and momentum. Work and energy.

Course Objectives

The objective of this course is: 1. To learn basic principles of kinematic and kinetic of particle and rigid body to students. 2. To gain experience in calculating motion due to applied forces and moments and needed forces and moments to supply given motion in engineering problems., 3. To learn application of principles of work-energy and impuls-momentum on particles and rigid bodies.


The student should be familiar with and be able to: 1.To learn fundamental information about kinematic and kinetic of the particle and rigid body. 2. To gain skill about ability of forming free body diagram and ability of computing unknown velocities, accelerations, forces, moments using this diagram. 3. To gain skill about ability of formulating and computing engineering problems needed information of kinematic and kinetic. 4. To gain skill about ability of solving the engineering problems that requires knowledge of kinetic, using the methods of work-energy, impuls-momentum also.


Textbook

Translaters:S.S. Tameroğlu, T.Özbek, Authors: F.P. Beer, E.R. Johnston, Mühendisler için Mekanik Cilt II: Dinamik,ÜÇER Matbaacılık, 1989 References

1. J.L. Meriam, L.G. Kraige, Engineering Mechanics,Dynamics, Third edition, John&Wiley Sons Inc., 1993 2. R.C. Hibbeler, Engineering Mechanics: Dynamics, Prentice Hall, 1997 3. D. Günay, A.Aydemir, Mühendislik Mekaniği: Dinamik, Değişim Yayınları, Adapazarı,1998

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Assoc.Prof. Dr. Sadettin ORHAN

Course name: MCE 202 Engineering

Mathematics-II


Engineering

Semester

4


Credit (ECTS)




6

56 50 18 56 180

Language English


Prerequisites None

Course Contents

Matrices, Determinants, Solution of Linear Equations Systems, Gauss Jordan and Cholesky Methods, Vector Space, Linear Transformations, Eigenvalues and Eigenvectors, Orthogonality, Numerical Methods and Application of them in Engineering, Newton Raphson Iteration, Approximation Methods, Interpolation, Linear Regression, Interpolation Polynoms, Lagrange Interpolation, Newton Interpolation, Numerical Integration, Gaussian Quadrature and Gauss Legendre Integration formulations.

Course Objectives

The objective of this course is to equip students with the background needed to carry out matrice solution, application of numerical methods into Mechanical Engineering problems.


Upon successful completion of the course, the student should be familiar with and be able to: • solve matrices and linear equation systems. • carry out Numerical methods in Engineering problems.


1. S.J. Leon, 2002, Linear Algebra with Applications, Pearson Education International 2. J. F. Epperson, 2001, An Introduction to Numerical Methods and Analysis, John Wiley and Sons

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Asst.Prof. Dr. Fatih KOYUNCU

Course name: MCE 206 Thermodynamics


Engineering

Semester

4


Credit (ECTS)




7

70 50 30 60 210

Language English


Prerequisites

Course Contents

This course will consider the fundamental science of classical thermodynamics and its practical applications. Problem solving will be emphasized, including problem formulation, analytical and computational solutions. Topics include the first law of thermodynamics, work, heat, properties of substances and state equations, the second law of thermodynamics and applications to engineering systems. Heat engines and refrigerators are discussed as well as internal combustion engines and steam engines. Finally, the concept of free energy is introduced and applied to phase transformations.

Course Objectives

1. Develop an understanding of the concepts underlying the first and second laws of thermodynamics 2. Provide experience in using prerequisite knowledge and/or skills in solving problems 3. Develop problem-solving skills in energy-related areas


On successfully completing this course unit, students will be able to: State the laws and principles of thermodynamics and define the principal thermodynamic properties of steam and ideal substances.


Cengel, Y. A. and M. A. Boles: Thermodynamics: An Engineering Approach, 4th ed., McGraw-Hill, 2002.

Moran, M. J. and H. N. Shapiro: Fundamentals of Engineering Thermodynamics, 5th ed., Wiley, 2004.

Myers, G. E.: Engineering Thermodynamics, 2nd ed., AMCHT Publications,

Madison, WI, 2007.

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Prof.Dr.Ahmet PINARBAŞI

Course name: MCE 208 Manufacturing

Technologies


Engineering

Semester

4


Credit (ECTS)




6

56 45 19 60 180

Language English


Prerequisites None

Course Contents

Introduction, manufacturing and product concept, Metal production methods, production of iron, Production of steel and other metals, Casting, sand casting, Other casting methods, Forming, Forging, Rolling, Extrusion, Drawing, Sheet-metal work, Welding, Powder metallurgy, Manufacturing systems and automation.

Course Objectives

To give students the information in materials processing of casting, welding, forming, sheet-metal working and powder metallurgy fields,

To introduce the principles of basic materials processes; tools and machines used; application fields of different processes in manufacturing,

To develop an understanding of the basic calculations in processes in manufacturing.


To familiarize the students with the principles and application fields of material processes

To familiarize the students with the advantages and limitations of manufacturing technologies with respect to each others depending on the application fields

To familiarize the students the recognizing the tool and machines used in manufacturing and to familiarize the students the selection of proper tool and machines in applications

To be able to familiarize with the selection of the best manufacturing method at the designing stage of a machine component

To be able to understand the basic calculations of traditional manufacturing methods and be able to use these calculation methods in practice.


Manufacturing Processes for Engineering Materials - S. Kalpakjian

İmal Usulleri - Prof. Dr. Selahattin Anık

Lecture notes – (İhsan TOKTAŞ)

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE 301 Fluid Mechanics


Engineering

Semester

5


Credit (ECTS)




6

56 40 34 50 180

Language English


Prerequisites MCE 205 Dynamics, MCE 201 Engineering Mathematics-I

Course Contents

Fundamental Concepts, Fluid Statics, Basic Equations in Integral Form,Open-Channel Flow, Euler’s, Navier-Stokes and Bernoulli's Equations, Dimensional Analysis, Incompressible Viscous Flow, Viscous flow in pipes and ducts, Pipe Friction, Boundary Layers, Introduction to Differential Analysis

Course Objectives

The goal of the course is to introduce the student to the science and practice of Fluid Mechanics. It is intended to develop an understanding of the basic equations governing the mechanics of fluid flows. Physical understanding and fundamental approaches are emphasized throughout the course. Students are expected to analyze a variety of fluid flow problems. Relation of physical laws to practical applications is required.


1. An ability to use techniques, skills, and modern engineering tools necessary for engineering practices. 2. To apply the knowledge of differential equations, and multivariate calculus to mechanical engineering design and analysis problems. 3. To understand the fluid properties and fundamental relationships of fluid mechanics


1. Fluid Mechanics: Fundamentals and Applications, by Yunus A.Çengel & John M.Cimbala, Mcgraw Hill Higher Education 2.Introduction to Fluid Mechanics by R. W. Fox and A.T. McDonald, John Wiley Sons

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE 305 Machine

Elements-I


Engineering

Semester

5


Credit (ECTS)




5

56 56 - 42 150

Language English


Prerequisites None

Course Contents

General concepts, stress analysis, compound stress, breaking theory. Fatigue, factor of safety. Notch, size, surface and other factors. Material selection. Joining by rivet, welding, soldering. Effect of force and momentum. Screws ant nuts. Analysis of spindles. Wedges. Springs.

Course Objectives

Analyzing and designing of machine elements in mechanical systems.


Students attended this course are able to analyse and design the mechanical systems.


P. H. Black and O.E. Adams, Jr. Machine Design, 3rd Ed., 1981.

J. E. Shigley and C. Mischke, Mechanical Engineering Design, McGraw-Hill International Editions, 7th Ed., 2003.

Timoshenko, Stephen P., Mechanics of Materials, 1998

Hibbeler, R. C., Mechanics of Materials, 1991

Ferdinand P., Mechanics of Materials, Beer, 1981

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Prof. Dr. Osman YİĞİT

Course name: MCE 307 Heat Transfer


Engineering

Semester

5


Credit (ECTS)




5

42 45 13 50 150

Language English


Prerequisites None

Course Contents

Basic laws of the heat transfer, Heat-sources systems, steady one dimensional heat conduction, theoretical and numerical solution of steady two-dimensional conduction systems, unsteady conductional systems, heat transfer in natural convection, heat transfer with forced convection, heat transfer with radiation, heat exchangers.

Course Objectives

To use heat transfer principles to understand the behavior of thermal systems. To illustrate the development of the governing differential, algebraic and finite difference equations associated with thermal systems. To introduce the possible methods of solution to the governing equation. To investigate the influences of boundary and initial conditions and system parameters on the resulting steady or transient response of the system. To provdive the basic tools that are used in thermal system design. To expose students to heat transfer applications in industry.


Students are required to identify, formulate and solve thermal problems using a combination of mass and energy balances and energy rate equations. The course combines analytical techniques and design principles as applied to thermal systems.


1. Y.A. Çengel, “Heat Transfer, A Practical Approach”, 2nd

Edition, WCB/McGraw- Hill, 2002. 2. F.P. Incropera and D.D. DeWitt, “Fundamentals of Heat and Mass Transfer”, 5

th Ed.,

John Wiley, 2002. 3. V.S. Arpacı, S. Kao and A. Selamet, “Introduction to Heat Transfer”, Prentice Hall, 1999.

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE 309 System

Dynamics and Control


Engineering

Semester

5


Credit (ECTS)




5

42 25 20 20 43 150

Language English


Prerequisites None

Course Contents

Introduction to system dynamics and control, transfer functions of linear systems. Linearization, transient response analysis, stability analysis, basic control algorithms and structures, PID tuning methods, frequency response analysis, basic controller design methods and examples.

Course Objectives

1. To provide basic knowledge on system dynamics and automatic control to mechanical engineering students, 2. To introduce basic controller design methods with a curriculum enriched by application examples.


1.Learn general knowledge on control system structure. 2.Modeling and analysis of dynamical systems. 3.Transient response analysis of linear systems. 4.Application of basic control algorithms and PID tuning methods. 5.Stability analysis of the system. 6.Learn basic design methods of frequency response. 7.Set up controller design experience based on industrial application examples.


- Modern Control Systems, Richard C. Dorf, Robert H. Bishop - Addison Wesley - Modern Control Engineering, Katsuhiko Ogata – Prentice Hal - Control Systems Engineering, Norman S. Nise - John Wiley&Sons, Inc. - Automatic Control Systems, Benjamin C. Kuo, Farid Golnaraghi - John Wiley&Sons, Inc. - Feedback Control of Dynamics Systems, Franklin Powell, Emami Naeimi - Addision Wesley - Otomatik Kontrol Temelleri, N. Özdaş, T. Dinibütün, A. Kuzucu – Birsen

Assessment Criteria


Midterm Exams X 40

Quizzes

Homeworks X 10

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Assoc.Prof.Dr.Sadettin ORHAN

Course name: MCE 311 Computer Aided

Design of Mechanical Systems


Engineering

Semester

5


Credit (ECTS)




5

42 40 - 42 26 150

Language English


Prerequisites None

Course Contents

Three-dimensional modelling methods with SOLIDWORKS or equivalent a current design program assistance. Examining characteristic properties of wireframes modelling. surface modelling and solid modelling. Single part modeling and material designation with Extrude, Revolve , Sweep, Loft, Rib, Cut Extrude, Cut Sweep, Wrap, Dome, Helix and other solid model commands. Surface modeling and be converting this model to solid. Sheet metal modelling and drawing of geometric dehiscence with sheet metal commands assistance. Welding and welding on assembly. Volume mold designing with mold command assistance.be assembling designed parts on assembly page. Motion simulation of assembled parts. parts Drawing of construction drawings with single or assembled drawings are transferred to “draw” page. Making tensile analysis and printing the reports with using COSMOSXpress module. Pattern designation, lightening, giving color with Photoworks module assistance giving a comprehensive project as term homework.

Course Objectives

Realizing design and drawing single and collected machine systems at computer environment. Realizing some analysis as programme is convenient.


Students taking the lecture have skills designing, assembling and making analysis of machine parts.


Lecturer Notes, İhsan Toktaş 2011.

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE438 Measuring

Techniques and Quality Control


Engineering

Semester

7


Credit (ECTS)




4

42 40 - 38 120

Language English

Compulsory/Elective Elective

Prerequisites None

Course Contents

Introduction metrology, importance of metrology and its applications in engineering. Metrology and calibration. Measuring instruments in manufacturing. Compass, its kinds, calibration and measuring applications. Micrometer, its kinds, calibration and measuring applications. Template, its kinds and applications. Surface roughness measuring. Coordinate metrology and macro geometry measurements. analysis of experimental data and statistical evaluation. Quality standards, quality concept and quality techniques. Quality control, inspection and tests. Quality insurance. Quality improvement methods.

Course Objectives

1. To give some knowledge about basic principles of measurement 2. To develope skills in team studies, 3. To teach the principles of operation, calibration techniques and application guidelines for basic measurement equipment, 4. To give information about measurement system design and their application, 5. To teach how to use various measurement techniques.


1. Knowledge and skills required for using experimental methods, data analysis techniques and acceptance tolerance concept in engineering applications, 2. Ability to contribute efficiently in team work, 3. Courage to take responsibility and adherence to principles, 4. Ability to present an oral or written report effectively, 5. Knowledge about recent measurement methods and data analysis techniques as well as conventional methods, 6. Ability to use computer software (spreadsheets, etc.) in data analysis and presentation.


Experimental Methods for Engineers, J. P. Holman, Fifth Ed., McGraw-Hill, 1989. E. O. Doebelin, “Measurement Systems: Application and Design”, Fourth Ed., McGraw-Hill, 1990 T. G. Beckwith, R. D. Marangoni, and J. H. Lienhard, “Mechanical Measurements” 5th ed. (Addison-Wesley, 1993).

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Prof.Dr.Ünal ÇAMDALI

Course name: MCE 304 Dynamics of

Machinery


Engineering

Semester

6


Credit (ECTS)




5

42 45 15 48 150

Language English


Prerequisites MCE 205 Dynamics, MCE 303 Mechanism Design

Course Contents

Forces Acting on Links; inertia force, static force analysis, dynamic force analysis,Superposition; Analytical Force Balance, cam dynamics, Balancing of Machinery; Balancing of Rotating Shafts; Analysis of Rotor Balancing.

Course Objectives

1. to teach students concepts of generalized forces and the Principle of Virtual Work 2. to teach students concepts of static and dynamic mass balancing and flywheels 3. to introducing the approaches and mathematical models used dynamical analysis of machinery.


Student, who passed the course satisfactorily can:

1. Analyze static and dynamic force analysis of mechanisms. 2. take notice of importance of the balancing and learn procedures of the basic balancing.


Textbook

References

1. “Design of Machinery,” Fourth Edition, by R.L. Norton, McGraw Hill, 2007 2. J.L. Meriam, L.G. Kraige, Engineering Mechanics,Dynamics, Third edition, John&Wiley Sons Inc., 1993 3. R.C. Hibbeler, Engineering Mechanics: Dynamics, Prentice Hall, 1997

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE 306 Machine Elements-II


Engineering

Semester

6


Credit (ECTS)




6

56 42 - 40 42 180

Language English


Prerequisites None

Course Contents

Rolling Bearings, Power Transmission, Friction Disks, Spur, Helical, Bevel Gears and Worm Gears, Roller Chain, Flat And V Belts, Couplings, Clutches and Brakes

Course Objectives

Analyzing and designing of machine elements in mechanical systems.


Students attended this course are able to analyse and design the mechanical systems.


P. H. Black and O.E. Adams, Jr. Machine Design, 3rd Ed., 1981.

J. E. Shigley and C. Mischke, Mechanical Engineering Design, McGraw-Hill International Editions, 7th Ed., 2003.

Timoshenko, Stephen P., Mechanics of Materials, 1998

Hibbeler, R. C., Mechanics of Materials, 1991

Ferdinand P., Mechanics of Materials, Beer, 1981

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE401 Mechanical

Project


Engineering

Semester

7


Credit (ECTS)




8

28 28 - 168 - 16 240

Language English


Prerequisites None

Course Contents

This lecture course includes an appropriate design project with all the design phases starting from project selection to completion and presentation, and which leads the students use the knowledge they gained during their tenure in the department and gain complete design experience.

Course Objectives

1. To provide the opportunity for the students to gain experience on all aspects and phases of design within the framework of an engineering problem, 2. To help the students develop professionally and ethically, 3. To bring the students in improved oral and written communication skills.


1. Knowledge and experience on design methodology 2. Experience gained on; Problem definition, Searching and using information, Alternative concept development, Concept selection and improvement, Reaching solution, Presenting results, through the open-ended design project conducted. 3. Consciousness on professional ethics


Assessment Criteria


Midterm Exams

Quizzes

Homeworks

Projects X 60

Term Paper

Laboratory work

Other

Final Exam X 40


Course name: MCE403 Machinery

Laboratory


Engineering

Semester

7


Credit (ECTS)




2

14 - 14 32 - 60

Language English


Prerequisites None

Course Contents

Various laboratory courses on the base of demonstrations and experimental works designed by each subdivisions of the Department of Mechanical Engineering.

Course Objectives

To show some mechanical systems and different machines to the students in real. To teach them how to use and how to work with these systems and how to produce some parts.


To able to use different machines, introduce different kind of systems in real


Assessment Criteria


Midterm Exams

Quizzes

Homeworks X 80

Projects X 20

Term Paper

Laboratory work

Other

Instructors Department Members.

Course name: MCE431 Introduction to

Mechatronics


Engineering

Semester

7


Credit (ECTS)




4

42 30 - 18 30 120

Language English


Prerequisites None

Course Contents

Introduction to mechatronics and measurement systems. Electro mechanical systems ; pneumatic, hydraulic, electronic circuits and components. Semiconductor electronics. Operational amplifiers. Digital circuits. Actuators. Mechatronic systems-control architectures, case studies

Course Objectives

Introduce to mechatronics systems


Understanding and using mechatronics systems


“Robotik, Mekatronik ve Yapay Zekâ” Newton C. Braga , Bileşim Yayınevi, ISBN: 9752711405 Introduction to Mechatronics and Measurement Systems by Alciatore and Histand, McGraw-Hill, 2nd edition, 2003. Mechatronics by Necsulescu, Prentice Hall, 2001. Mechatronics – Electronic Control Systems in Mechanical and Electrical Engineering by Bolton, Prentice Hall, 3rd edition, 2003.

Assessment Criteria


Midterm Exams X 40

Quizzes

Homeworks X 10

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Prof.Dr.Osman YİĞİT

Course name: MCE 433 Descriptive

Geometry


Engineering

Semester

7


Credit (ECTS)




4

42 36 - 42 120

Language English


Prerequisites None

Course Contents

Definitions of design geometry and projection terms. Projection varieties. Normal and auxiliary projections of point and line. Auxiliary projection, exact length of lines by using lying down and rotation methods. Determination of exact length of planes and fundamental angles. Principles of view. Relationships of line-plane and plane-plane; point of holing, determination of intersection, determination of angles between them. Parallelism, orthogonality and vectors.

Course Objectives

Conceiving space bodies and problems, comprehending, analyzing and be drawing, improving their capabilities.


Can make introduction elementary analyze and solutions bodies with their projections.


Tasarı Geometri Temel Metot ve Uygulamalar Cilt-1 ve 2, Şevki Bayvas- Necmettin Dericioğlu – Osman Özgönül,1969

Uygulama Yaprakları – İhsan Toktaş, 2011.

Assessment Criteria


Midterm Exams X 25

Quizzes

Homeworks X 25

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE Mechanical Vibrations Department: Mechanical

Engineering

Semester

7


Credit (ECTS)




4

42 28 70 120

Language English


Prerequisites None

Course Contents

Basic vibration terminology, Creating of mathematical models of mechanical systems, free and forced vibration of the mechanical systems,vibration measuring instruments, introduction to vibration of continuous system,industrial vibration measurement and analysis applications

Course Objectives

To be introduced of mathematical models and solution methods to study vibration of the mechanical systems,thus, to be supplied of vibration information to designer.


To be learned fundamental information about vibration phenomenon, to be gained skills of modeling of vibration problems encountered in application and examining vibration response, establishing relation between real system and physical model, and to be formed mathematical model from physical model, methods used examining of vibrations and its usage fields. Experience in solution of mathematical model and to be interpreted of its results. To be having general information about definition and finding remedy of the vibration problems encountered in machineries.


Textbook

Mechanical Vibrations, S.S. Rao,Third Edition,Addision –Wesley Publishing References 1. Elements of Vibration Analysis, L.Meirovitch, 1986, McGraw Hill 2. Theory of Vibrations with Applications, W.T.Thomson, 1993

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE433 Natural Gas

Installations


Engineering

Semester

7


Credit (ECTS)




4

42 - - 42 36 120

Language English


Prerequisites None

Course Contents

Characteristics of gas pipes, fittings, valves and assembly. Expansions in gas pipes and methods for avoiding. Installation components and assembly. Condensation and corrosion in installation and methods for avoiding. Heating isolation of installation. Dimensions of installation and equipments. Gas installation under high pressure. Gas installation under low pressure. Steam installation. Gas installation. Applications and examples.

Course Objectives

1. To teach basic principles and terminology of gas installations, 2. To introduce components and energy systems, 3. To enhance the ability of analysis and installing in this field.


1. Apply basic principles and terminology of energy conversions 2. Design basic gas installations systems, 3. Analyze, apply and communicate in this field, 4. Define the system in any problem.


Doğal Gaz Tesisatı, Prof: Dr. Hikmet Karakoç, Demirdöküm yayınları Gas Installation Technology – R. Treloar Natural Gas Installation Standards – Orange & Rockland 2011

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 10

Projects X 20

Term Paper

Laboratory work

Other

Final Exam X 40

Instructor Prof.Dr.Ünal ÇAMDALI

Course name: MCE433 Numerically

Controlled Machine Tools


Engineering

Semester

7


Credit (ECTS)




4

42 18 30 30 120

Language English


Prerequisites None

Course Contents

History of machine tools, Introduction to digital systems, Axis and motion nomenclature, Tooling and general considerations for programming, APT, CLDATA, Part programming, Numerical Control structure: control unit, machine interface, position and motion control, Interpolators, Auxiliary commands, Computer-aided part programming, CAM-CNC integration, Adaptive control of CNC machine tools.

Course Objectives

The objective of the course is to teach basic concepts of numerically controlled machine tools and how computer control is applied to modern machine tools. The students are to learn basics of manual and computer aided part programming.


How to use a CNC machine.

Create APT, CLDATA and part programs for mechanical parts.


Prof. Dr. Mustafa Akkurt, Bilgisayar Kontrollü Tezgahlar.

Doç. Dr. Ersan Aslan, BSD Programlama Esasları ve Uygulamaları.

Prof.Dr. Mahmut Gülesin/ Yrd.Doç.Dr. Abdülkadir Güllü/ Özkan Avcı/ Gökalp Akdoğan, CNC Torna ve Freze Tezgahlarının Proglamlanması (Fanuc), ASİL YAYIN DAĞITIM, 2006.

Assessment Criteria


Midterm Exams X 20

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 60


Course name: MCE Heat Exchangers


Engineering

Semester

7


Credit (ECTS)




4

42 30 20 28 120

Language English


Prerequisites None

Course Contents

parts of and general construction of shell, tube and plate type heat exchangers

parallel flow, counter flow and cross flow heat exchangers

single-pass and multi-pass heat exchangers

regenerative and non-regenerative heat exchangers.

process design of heat exchangers

mechanical design of shell and tube type exchanger

Course Objectives

This course is intended to provide you with the following specific knowledge and skills:

Understanding the purpose of heat exchangers

Learning the different types of heat exchangers

Understanding heat exchanger applications

Understanding the sizing of heat exchanger Learning Outcomes and Competences

By studying this course, students will be able to: 1. Compare temperature scales and convert from one temperature to another 2. Apply the proper use of hand tools, equipment, and safety practice 3. Demonstrate the ability to use basic hand tools and instruments 4. Analyze refrigeration Cycle 5. Describe the basic refrigeration cycle and the function of four major components 6. Apply the proper use of different refrigerants and their application in a system 7. Define basic refrigeration term 8. Demonstrate the proper operation of soldering and brazing techniques 9. Practice refrigeration techniques and safety


1. 1. T.Taborek, G.F.Hewitt and N.Afgan, Heat Exchangers, Theory and

Practice, McGraw-Hill Book Co.1980.

2. Walker, Industrial Heat Exchangers- A Basic Guide, Mc Graw Hill Book Co. 1980

3. Nicholas Cheremistoff, Cooling Tower, Ann Arbor Science Pub 1981

4. Arthur, P. Frass, Heat Exchanger Design, John Wiley and Sons, 1988

5. J.P. Gupta, Fundamentals of heat exchangers and pressure vessel technology,Hemisphere publishing corporation, Springer-Verlag (outside NA), 1986

6. E.A.D. Sanders, Heat Exchangers, Selection Design and Construction Layman Scientific & Technical; co published with John Wiley & sons, 1988

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Prof. Dr. Ahmet PINARBAŞI

Course name: MCE 432 Theory of

Machining and Machine Tools


Engineering

Semester

8


Credit (ECTS)




5

42 38 - 28 42 150

Language English


Prerequisites None

Course Contents

Analyze of cutting force and effecting and tools and machine of this force kinematics mechanism of transmission of movement in machine tools. Drawing of construction and speed diagrams with calculate. Design of body and slipway. Accuracy of stick-slip an slipway. Cutting force on effect slipways.

Course Objectives

Be providing more high in quality manufacturing with examining of chipping methods bases have important role in determining measurement and surface quality of machine tools in chipped manufacturing.


Students taking the lecture; - use in applications by learning construction of machine tools - analyse forces, can control appropriateness for machine power according to working standards.


Mendi , F Takım Tezgahları Teori ve Hesapları ISBN 975-06008-0-3 Ankara 1996.

Mendi , F Takım Tezgahları Tasarımı , ISBN 975-7313-50-3 , Ankara 1999.

Akkurt , M Takım Tezgahları , Birsen yayınevi . İstanbul 1985.

Akkurt , NC’li Tezgahlar, Birsen yayınevi . İstanbul 1986.

G.Boothroyd, Fundamentals of Machining and Machine Tools, Marcel Decker Inc., New York, 1989

Mustafa Akkurt, Talaş Kaldırma Yöntemleri ve Takım Tezgahları, Birsen yayınevi.

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 10

Projects

Term Paper X 10

Laboratory work

Other

Final Exam X 50


Course name: Finite Element Method


Engineering

Semester

8


Credit (ECTS)




5

42 43 25 40 150

Language English


Prerequisites None

Course Contents

Applications of FEM, Stiffness Method in FEM, Solution of Plane Truss Problems, Beam Analysis using Stiffness Method, Potantial Energy Approach to Derive Beam Element Equations, Frames, Finite Element Solution of Plane Stress Problems with Linear_Strain Triangle Elements, Axisymmmetric Elements, Three-Dimensional Stress Analysis, Finite Element Formulation of one Dimensional Heat Transfer, Time Dependent One Dimensional Bar Analysis

Course Objectives

This course introduces the basis of the finite method and its application in solving engineering problems. The objectives are for the student to be able to: • Apply knowledge of mathematics to understand the basic concepts of the finite element method; • Model engineering problems using the finite element method; • Use finite element digital computer programs;


Upon successful completion of the course, students should be able to *Demonstrate an ability to apply knowledge of mathematics, science and engineering

to the analysis of simple elastic structures using the finite element method. * Demonstrate the ability to design and conduct numerical experiments as well as

analyze and interpret the results. * Demonstrate an ability to identify, formulate, and solve engineering problems using

the finite element method.


A First Course in the Finite Element Method, D.L.LOGAN

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE 432 Pressworking

Techniques


Engineering

Semester

8


Credit (ECTS)




5

42 35 - 28 45 150

Language English


Prerequisites None

Course Contents

The importance of mold presses for machine construction, their properties and selection, the general properties of press controls according power sources, manual control, mechanical, pneumatic and hydraulic control. The examination of basic mold elements, mold sets, mold and punches, the abstraction of molds. The cost and life analysis of molds.

Course Objectives

Designing of boring, cutting, bending and tensile molds, calculations of strength and drawing of construction drawings.


Students taking this lecture can design boring, cutting, bending and tensile molds.


DeGarmo, Black, Kohser, Materials and Processes in Manufacturing, Macmillan,1984.

İbrahim Uzun, Yakup Erişkin, Saç Metal Kalıpçılığı.

Turan Güneş, Pres İşleri Tekniği.

Die sinking, technical drawing, machine elements books and standard catalogs concerning with the subject

Assessment Criteria


Midterm Exams X 25

Quizzes

Homeworks

Projects X 25

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE 308 Systematic

Design

Department:Mechanical

Engineering

Semester

5


Credit (ECTS)




5

42 42 - 26 40 150

Language English


Prerequisites None

Course Contents

Introduction, fundamentals of engineering systems, the design process, product planning and clarification of the task, conceptual design , Conceptual design: steps of conceptual design, checklist for conceptual design, basic rules, principles of conceptual design, guidelines for conceptual design. Embodiment design: Designing to standards, designing for production, designing for assembly, coping with design faults, disturbing factors and risks, evaluating embodiment design, developing size ranges and modular products.

Course Objectives

Gaining basic information and skills about machine design at detail and advanced level.


Using basic information and methods about systematic design.


G. Pahl and W . Beitz , Engineering Design A. Systematic approach, Springer – Verlag, 2 nd Edition , 1988 , London , UK.

Assessment Criteria


Midterm Exams X 20

Quizzes

Homeworks X 20

Projects X 10

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE Refrigeration

Technology


Engineering

Semester

8


Credit (ECTS)




4

42 42 20 28 30 120

Language English


Prerequisites None

Course Contents

Air conditioning, temperature scales, pressure gauge, thermodynamics of refrigeration, four major components.

Course Objectives

This course is designed to introduce the student to refrigeration as related to the air conditioning, heating, and refrigeration field. The student will be required to identify the theory, and operation of systems and components.


By studying this course, students will be able to: 1. Compare temperature scales and convert from one temperature to another 2. Apply the proper use of hand tools, equipment, and safety practice 3. Demonstrate the ability to use basic hand tools and instruments 4. Analyze refrigeration Cycle 5. Describe the basic refrigeration cycle and the function of four major components 6. Apply the proper use of different refrigerants and their application in a system 7. Define basic refrigeration term 8. Demonstrate the proper operation of soldering and brazing techniques 9. Practice refrigeration techniques and safety


1. R.J. Dossat, Principles of refrigeration, Pearson Education Asia

2. C.P. Arora, Refrigeration and Air-Conditioning

3. A.R. Trott, Refrigeration and Air-conditioning, Butterworths

4. John A. Corinchock, Technician’s guide to Refrigeration systems, McGraw-Hill

5. P.C. Koelet, Industrial Refrigeration: Principles, design and applications, Mcmillan

6. ASHRAE Handbook (i) Fundamentals (ii) Refrigeration

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE Acoustics and Noise

Control


Engineering

Semester

8


Credit (ECTS)




4

42 30 18 30 120

Language English


Prerequisites None

Course Contents

Study of acoustics related to noise and its control; acoustic terminology, wave propagation, wave propagation solutions, instrumentation, data processing, room acoustics, noise control, hearing, noise legislation

Course Objectives

Students will learn the fundamentals of engineering acoustics which are important for noise control practice as well as the basic concepts of acoustic measurements and the use and application of acoustic analysis for particular application in noise control.


To teach students the basic principles of acoustics To teach the students the use and application of acoustic analysis instruments To provide students an introductory exposure to noise control To make students aware of the human and regulatory issues related to noise exposure


Reference: Lawrence E. Kinsler, Austin R. Frey, Alan B. Coppens, and James V.

Sanders, Fundamentals of Acoustics, John Wiley & Sons Colin Hansen, Noise Control, from Concept to Applications, Taylor and Francis, 2005 .

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50

Instructors Assoc.Prof.Dr.Sadettin ORHAN

Course name: Steam Boilers


Engineering

Semester

8


Credit (ECTS)




4

42 30 18 30 120

Language English


Prerequisites None

Course Contents

boiler definitions, ratings and heat fundamentals

firetube boilers and other boilers

watertube boilers

boiler construction and materials

boiler accessories, appurtenances, and auxiliaries

combustion, fuels, burner systems and controls

boiler auxiliaries and water treatment

operation, maintenance and emergency operations

Course Objectives

introducing of steam boiler and its auxiliary components

gaining principals of thermal design of steam boilers

being able to calculate energy balances and water/ steam circulation for steam boilers


By studying this course, students will be able to:

fundamentals information and definitions about steam boilers

ability of thermal computation and pressure loss computations on steam boiler, convection surfaces, and auxiliary components .

gaining some skills about operation, maintenance and emergency operations


1) Stationary Engineering - Steingress - STP Publishing 2) Course Pack Text and/or Workbook– From College Store Optional - Suggested Texts 3) Boiler Operator's Guide, 4th (current) Ed, Anthony L. Kohan, McGraw-Hill Book Co., and/or 4) HP Boilers - Steingress - (current edition) ATP Publishing 5) Boilers, Carl D. Shields, (Reproduction), P.E.R Associates Inc. Associates Inc

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


Course name: MCE 438 Computer Aided

Manufacturing (CAM)


Engineering

Semester

8


Credit (ECTS)




4

42 32 - 46 120

Language English


Prerequisites None

Course Contents

Definition of the geometries and designs in CAD/CAM environment, 2D and 3D design commands and dimension, 3D modelling and commands, making file, modifying and helping commands, tool selection and tool design, geometry and process definition, creation of the cutting tool position information, start point definition, tool start plane and cavity plane information, cutting parameters definition, the methods of the cutting tool approach to work piece, plunge and retract, profile machining for prismatic parts, slotting, pocketing, facing, drilling and machining methods, face turning, profile turning, grooving, drilling, internal and external threading process and parting off methods for cylindrical parts, using of the simulation modules in the CAD/CAM packages, post definition in the CAD/CAM packages, automatic CNC code generation, sending of the CNC part programmes to CNC machines with aid of DNC and RS-232, data transfer to CNC control panels and definition of the procedure, definition of the reference point of the work piece on CNC machine.

Course Objectives

Being able to perform all 2D and 3D designs and their machining operations using a CAD/CAM package.


Being able to generate tool paths doing 2D and 3D designs in a CAD/CAM package. To send part programmes to CNC machine and being able to machine parts.


MASTERCAM ile Tasarım ve Üretim Modelleme, M., Gülesin, A., Güllü, Ö., Avcı, G., Akdoğan, Asil Yayın Dağıtım, Ankara, 2005.

Mastercam ve CNC Programlama Cilt 1, M., NALBAN T, Beta Basım Yayım, Ankara, 2002

Mastercam ve CNC Programlama Cilt 2, M., NALBAN T, Beta Basım Yayım, Ankara, 2003

MASTERCAM Torna Modülü CNC Programlama 3, M., NALBAN T, Alfa Yayınları, Ankara, 2005

MASTERCAM, K., Gök, A., Gök, Pusula Yayınları, İstanbul, 2004

Assessment Criteria


Midterm Exams X 30

Quizzes

Homeworks X 20

Projects

Term Paper

Laboratory work

Other

Final Exam X 50


YILDIRIM BEYAZIT UNIVERSITY FACULTY OF ENGINEERING AND …€¦ · FACULTY OF ENGINEERING AND...

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